mhurhangee/ep-ind-claims huggingface dataset:
A head mounted display device comprising: a frame having a leading edge for placing adjacent a face of a user, the frame enclosing a viewing compartment; and a thermal door component for coupling to a back surface of a mobile electronic device positioned at a distal end of the viewing compartment, the thermal door component including: a first substantially planar portion for reversibly mating to the back surface of the mobile electronic device; and a second portion at least partially forming an opening at an edge of the thermal door component, the first portion and the second portion forming an open thermal convection channel within an interior of the thermal door component and contiguous with the opening at the edge of the thermal door component. a frame having a leading edge for placing adjacent a face of a user, the frame enclosing a viewing compartment; and a thermal door component for coupling to a back surface of a mobile electronic device positioned at a distal end of the viewing compartment, the thermal door component including: a first substantially planar portion for reversibly mating to the back surface of the mobile electronic device; and a second portion at least partially forming an opening at an edge of the thermal door component, the first portion and the second portion forming an open thermal convection channel within an interior of the thermal door component and contiguous with the opening at the edge of the thermal door component. a first substantially planar portion for reversibly mating to the back surface of the mobile electronic device; and a second portion at least partially forming an opening at an edge of the thermal door component, the first portion and the second portion forming an open thermal convection channel within an interior of the thermal door component and contiguous with the opening at the edge of the thermal door component.
A method of forming comestible, the method comprising: providing a sizing device configured to size a comestible mass into a comestible sheet of a desirable width, said sizing device including a pair of rollers; providing a collecting device upstream of said sizing device, said collecting device including at least a first compartment and a second compartment, said first and second compartments being separated by separator; inputting a first comestible mass into said first compartment and a second comestible mass into said second compartment; outputting said first comestible mass and said second comestible mass from said collecting device to said sizing device such that said first comestible mass is output directly onto a roller of said sizing device and said second comestible mass is output onto said first comestible mass; and sizing said first comestible mass and said second comestible mass into a comestible sheet, said comestible sheet including said first comestible mass and said second comestible mass. providing a sizing device configured to size a comestible mass into a comestible sheet of a desirable width, said sizing device including a pair of rollers; providing a collecting device upstream of said sizing device, said collecting device including at least a first compartment and a second compartment, said first and second compartments being separated by separator; inputting a first comestible mass into said first compartment and a second comestible mass into said second compartment; outputting said first comestible mass and said second comestible mass from said collecting device to said sizing device such that said first comestible mass is output directly onto a roller of said sizing device and said second comestible mass is output onto said first comestible mass; and sizing said first comestible mass and said second comestible mass into a comestible sheet, said comestible sheet including said first comestible mass and said second comestible mass.
A proximity sensor arrangement comprising: a generator arrangement comprising a first antenna and an oscillator and operable to generate an electric field in a target region, the field oscillating at the frequency of the oscillator; a sensor arrangement comprising a second antenna and operable to sense the electric field; wherein the first and second antennas are mounted on an aperture closure member (38, 42) to define the target region at the perimeter of the closure member; and the arrangement further comprising control means (25, 27) operable to analyse the field strength sensed by the sensor arrangement, for changes indicative of a change in conditions in the target region, wherein the target region is a region through which the aperture closure member is movable, and wherein the control means (25, 27) stores data representing an expected sensed field strength for a range of positions of the aperture closure member, for comparison with an actual sensed field strength to determine a change in conditions, and wherein an unacceptable change in conditions is determined by reference to one or more threshold changes (70, 72) of sensed field strength and/or rate of change of sensed field strength, and wherein the or each threshold is dependent on the current position of the closure member. a generator arrangement comprising a first antenna and an oscillator and operable to generate an electric field in a target region, the field oscillating at the frequency of the oscillator; a sensor arrangement comprising a second antenna and operable to sense the electric field;
Energy storage device for attachment to a bicycle frame, with a housing, arranged in which is at least one energy storage unit to provide electrical energy, with at least one electrical connection which is present on the housing and is accessible from the outside, and to which an electrical consumer can be connected, wherein the housing has two housing parts which are connected to one another via a rigid connecting piece, wherein provided between the two housing parts is a mounting space which serves to accommodate at least one tube section (37, 38) of a frame tube (45, 48) of the bicycle frame, wherein the width of the mounting space is at least as large as the width of the tube section (37, 38) that is to be accommodated, wherein the width of the mounting space corresponds to the distance between the two housing parts, as viewed perpendicular to a longitudinal central plane in a transverse direction, and wherein on account of the rigid connection of the two housing parts via the connecting piece, the width of the mounting space in the area of the connecting piece is constant before, during and after attachment to the bicycle frame.
Intervertebral fusion implant for the fusion of two vertebrae (52, 53), comprising an upper bearing body for placing on a lower end-plate of a vertebra, and a lower bearing body for placing on an upper end-plate of an opposite vertebra, and also a central piece arranged between the bearing bodies (2, 3), wherein the central piece is designed as a claw coupling which, in a coupling position, couples the two bearing bodies (2, 3) in a rotationally fixed manner to each other, wherein, in an open position of the claw coupling, the bearing bodies (2, 3) are freely movable in relation to each other, characterized in that the claw coupling is actuated automatically and has, as actuating member, a plastic blocking body which, in its initial position, holds the claw coupling open and, under a load transferred from one vertebra to the other vertebra, is slowly deformable until it reaches a final coupling position, in which the claw coupling is closed.
Imaging system for imaging a first object being present within a second object, comprising: - a polychromatic radiation source for emitting polychromatic radiation, wherein the polychromatic radiation source generates a radiation beam traversing the first object and the second object, wherein the radiation beam is dimensioned such that the first object is completely located within the radiation beam, - an energy-resolving radiation detector for obtaining energy-resolved detection signals in at least three energy bins depending on the radiation after passing through the first object, - a driving device (7, 8) for moving the first object and the radiation source relatively to each other, in order to acquire truncated projections ( P t) from different directions, wherein the truncated projections ( P t) comprise the detection signals and are truncated with respect to the second object, - an image generation device comprising a calculation unit and a reconstruction unit, wherein the calculation unit determines a density length product of a k-edge component at least of one of the first object and a substance within the first object from the truncated projections (P t) and determines non-truncated projections (P x) from the determined density length products of the k-edge component, and the reconstruction unit reconstructs the first object using the non-truncated projections (P x). - a polychromatic radiation source for emitting polychromatic radiation, wherein the polychromatic radiation source generates a radiation beam traversing the first object and the second object, wherein the radiation beam is dimensioned such that the first object is completely located within the radiation beam, - an energy-resolving radiation detector for obtaining energy-resolved detection signals in at least three energy bins depending on the radiation after passing through the first object, - a driving device (7, 8) for moving the first object and the radiation source relatively to each other, in order to acquire truncated projections ( P t) from different directions, wherein the truncated projections ( P t) comprise the detection signals and are truncated with respect to the second object, - an image generation device comprising a calculation unit and a reconstruction unit, wherein the calculation unit determines a density length product of a k-edge component at least of one of the first object and a substance within the first object from the truncated projections (P t) and determines non-truncated projections (P x) from the determined density length products of the k-edge component, and the reconstruction unit reconstructs the first object using the non-truncated projections (P x).
A method of treating a plastic substrate comprising applying a coating composition directly onto at least a portion of a plastic substrate, wherein the coating composition comprises: (i) a film-forming polymer, (ii) an adhesion promoter, and (iii) a triblock copolymer, wherein the (ii) adhesion promoter is a (non)chlorinated polyolefin, wherein one block of the copolymer comprises cycloalkyl(meth)acrylate or aryl(meth)acrylate units, wherein another block of the copolymer comprises hydroxy functional and/or non-hydroxy functional (meth)acrylic acid alkyl esters and a third block of the copolymer comprises (meth)acrylic acid units. (i) a film-forming polymer, (ii) an adhesion promoter, and (iii) a triblock copolymer,
A liquid ejecting head comprising: a diaphragm constituting a portion of a wall surface of a pressure chamber that accommodates a liquid; and a piezoelectric element that vibrates the diaphragm, wherein the diaphragm includes a plurality of layers, and the plurality of layers includes a compressive film that has compressive stress, and a tensile film that has tensile stress, in a case that the plurality of layers includes at least one further layer (35, 442), the compressive film and the tensile film are two layers adjacent to each other that have a largest tension difference among the plurality of layers, the piezoelectric element is disposed on a surface of the diaphragm on a side of the diaphragm opposite the pressure chamber, and characterized in that an absolute value of the tension difference between the compressive film and the tensile film is 400 N/m or smaller. a diaphragm constituting a portion of a wall surface of a pressure chamber that accommodates a liquid; and a piezoelectric element that vibrates the diaphragm, wherein the diaphragm includes a plurality of layers, and the plurality of layers includes a compressive film that has compressive stress, and a tensile film that has tensile stress, a compressive film that has compressive stress, and a tensile film that has tensile stress, in a case that the plurality of layers includes at least one further layer (35, 442), the compressive film and the tensile film are two layers adjacent to each other that have a largest tension difference among the plurality of layers, the piezoelectric element is disposed on a surface of the diaphragm on a side of the diaphragm opposite the pressure chamber, and characterized in that an absolute value of the tension difference between the compressive film and the tensile film is 400 N/m or smaller.
A method of inhibiting foaming of a high-concentrated soluble thrombomodulin-containing solution, which is used in preparing a high-concentrated soluble thrombomodulin-containing solution having a concentration of 10 mg/mL or more by dissolving a soluble thrombomodulin-containing freeze-dried preparation that contains soluble thrombomodulin as an active ingredient, the method being characterized by comprising at least one of: (a) the presence of at least one compound selected from the group consisting of a nonionic surfactant, benzyl alcohol, and chlorobutanol; (b) the use of a container having the inner wall coated with silicone, said container being used in dissolving the soluble thrombomodulin-containing freeze-dried preparation; and (c) a pressure in the container to be used in dissolving the soluble thrombomodulin-containing freeze-dried preparation is kept at a reduced pressure, reduced by -13332.2 Pa to -39996.6 Pa (-100 to -300 mmHg). (a) the presence of at least one compound selected from the group consisting of a nonionic surfactant, benzyl alcohol, and chlorobutanol; (b) the use of a container having the inner wall coated with silicone, said container being used in dissolving the soluble thrombomodulin-containing freeze-dried preparation; and (c) a pressure in the container to be used in dissolving the soluble thrombomodulin-containing freeze-dried preparation is kept at a reduced pressure, reduced by -13332.2 Pa to -39996.6 Pa (-100 to -300 mmHg).
A method of configuring distributed data acquisition equipment comprising at least one data collection unit (30, 30') and at least one data acquisition unit (40, 40') coupled to the data collection unit (30, 30'), the method comprising the steps of: - obtaining, by a server (10, 11), configuration data for the at least one data acquisition unit (40, 40'); - generating, by the server (10, 11), a message comprising a message body and the configuration data; - transmitting said message to a data collection unit (30, 30') coupled to the at least one data acquisition unit (40, 40'); - extracting in the data collection unit (30, 30') the configuration data from said message; and - determining at least one target data acquisition unit (40, 40') to which the configuration data is to be forwarded and forwarding the extracted configuration data to the at least one data acquisition unit (40, 40'), wherein the remainder of said message is omitted. - obtaining, by a server (10, 11), configuration data for the at least one data acquisition unit (40, 40'); - generating, by the server (10, 11), a message comprising a message body and the configuration data; - transmitting said message to a data collection unit (30, 30') coupled to the at least one data acquisition unit (40, 40'); - extracting in the data collection unit (30, 30') the configuration data from said message; and - determining at least one target data acquisition unit (40, 40') to which the configuration data is to be forwarded and forwarding the extracted configuration data to the at least one data acquisition unit (40, 40'), wherein the remainder of said message is omitted.
A power adapter, comprising: a shell, having a receiving cavity; a plug assembly, comprising a plug connected to the shell and located outside the receiving cavity, and a connector electrically connected to the plug and located inside the receiving cavity; an electronic assembly, comprising a transformer connected to the shell and located inside the receiving cavity, and an electronic element electrically connected to the transformer, wherein the transformer is electrically connected to the connector and used to convert strong AC current conducted by the connector into weak DC current to transmit same to the electronic element; the adapter characterized by comprising a protective shield, located inside the receiving cavity and enclosing a protective cavity together with a cavity wall of the receiving cavity, wherein the connector is located inside the protective cavity, the electronic assembly is located outside the protective cavity, and the protective shield is a protective shield made of an insulating material. a shell, having a receiving cavity; a plug assembly, comprising a plug connected to the shell and located outside the receiving cavity, and a connector electrically connected to the plug and located inside the receiving cavity; an electronic assembly, comprising a transformer connected to the shell and located inside the receiving cavity, and an electronic element electrically connected to the transformer, wherein the transformer is electrically connected to the connector and used to convert strong AC current conducted by the connector into weak DC current to transmit same to the electronic element; the adapter characterized by comprising a protective shield, located inside the receiving cavity and enclosing a protective cavity together with a cavity wall of the receiving cavity, wherein the connector is located inside the protective cavity, the electronic assembly is located outside the protective cavity, and the protective shield is a protective shield made of an insulating material.
A method, comprising: receiving (300, 2008) at a receiver (101, 102,..., 10N) an input signal arranged in frames, the frames including at least one field (CRCF) including a certain number of bits comprised between two subsequent homologous bit edges in said input signal, producing (302, 2000) at said receiver (101, 102,..., 10N) a timing signal including waveforms each having a duration adjustable (SC, 410) at one of a first duration value and a second duration value, performing a check (304, 2006) as to the occurrence, over the duration of said number of bits comprised between two subsequent homologous bit edges in said input signal in said bit frames in said received input signal, of a number of waveforms of said timing signal having said duration adjusted to one of said first duration value and said second duration value by checking whether said number of waveforms corresponds to said number of bits comprised between two subsequent homologous bit edges in said input signal, producing a check signal having a first value or a second value as a function of whether said check is passed or failed, and as a result of said check signal having said first value, maintaining the duration of the waveforms in said timing signal adjusted to said one of said first duration value and said second duration value, as a result of said check signal having said second value, re-adjusting the duration of the waveforms in said timing signal to the other of said first duration value and said second duration value. receiving (300, 2008) at a receiver (101, 102,..., 10N) an input signal arranged in frames, the frames including at least one field (CRCF) including a certain number of bits comprised between two subsequent homologous bit edges in said input signal, producing (302, 2000) at said receiver (101, 102,..., 10N) a timing signal including waveforms each having a duration adjustable (SC, 410) at one of a first duration value and a second duration value, performing a check (304, 2006) as to the occurrence, over the duration of said number of bits comprised between two subsequent homologous bit edges in said input signal in said bit frames in said received input signal, of a number of waveforms of said timing signal having said duration adjusted to one of said first duration value and said second duration value by checking whether said number of waveforms corresponds to said number of bits comprised between two subsequent homologous bit edges in said input signal, producing a check signal having a first value or a second value as a function of whether said check is passed or failed, and as a result of said check signal having said first value, maintaining the duration of the waveforms in said timing signal adjusted to said one of said first duration value and said second duration value, as a result of said check signal having said second value, re-adjusting the duration of the waveforms in said timing signal to the other of said first duration value and said second duration value.
Aerosol-generating article comprising an aerosol-generating material, which is heated during intended use to release an aerosol, but is not burnt, and a wrapping material, wherein the wrapping material has - a thickness of at least 50 μm and at most 350 μm, - a basis weight of at least 50 g/m 2 and at most 200 g/m 2, - a density of at least 500 kg/m 3 and at most 1300 kg/m 3, and - a bending stiffness of at least 0.15 Nmm and at most 1.50 Nmm, wherein the wrapping material comprises at least two layers, wherein the layers are connected to each other and wherein one layer is a paper layer, which has - a thickness of at least 40 μm and at most 70 μm, - a basis weight of at least 50 g/m 2 and at most 80 g/m 2, and - a density of at least 700 kg/m 3 and at most 1300 kg/m 3, and - a density that is higher than the density of any of the other layers of the wrapping material. - a thickness of at least 50 μm and at most 350 μm, - a basis weight of at least 50 g/m 2 and at most 200 g/m 2, - a density of at least 500 kg/m 3 and at most 1300 kg/m 3, and - a bending stiffness of at least 0.15 Nmm and at most 1.50 Nmm, - a thickness of at least 40 μm and at most 70 μm, - a basis weight of at least 50 g/m 2 and at most 80 g/m 2, and - a density of at least 700 kg/m 3 and at most 1300 kg/m 3, and - a density that is higher than the density of any of the other layers of the wrapping material.
A front section provided on a main body on a sanitary diaper and which is in layered form and where a male connection part is connected in an openable and closeable manner; characterized in that said front section comprises: - said front section is formed by aligning a first nonwoven layer, a thermoplastic film layer and a second nonwoven layer respectively and - said front section comprises pluralities of bonded regions which thermally weld at least said second nonwoven layer and said thermoplastic film layer and which form a laminated structure and embodied in a repetitive pattern in at least one of star-like, short line, curved line, waved line and elliptical forms in an independent manner from each other and the thickness of the bonded region is 1.5 mm at most, - length of a bonded region is between 2 and 10 mm, - the bonded regions occupy 13-20 % of the area of the front section, - distance between the bonded region and the other adjacent bonded region is at least 1 mm and at most 10 mm. - weight of the second nonwoven layer is between 20 and 50 g/m 2; and weight of the thermoplastic film layer is between 6 and 45 g/m 2. - said front section is formed by aligning a first nonwoven layer, a thermoplastic film layer and a second nonwoven layer respectively and - said front section comprises pluralities of bonded regions which thermally weld at least said second nonwoven layer and said thermoplastic film layer and which form a laminated structure and embodied in a repetitive pattern in at least one of star-like, short line, curved line, waved line and elliptical forms in an independent manner from each other and the thickness of the bonded region is 1.5 mm at most, - length of a bonded region is between 2 and 10 mm, - the bonded regions occupy 13-20 % of the area of the front section, - distance between the bonded region and the other adjacent bonded region is at least 1 mm and at most 10 mm. - weight of the second nonwoven layer is between 20 and 50 g/m 2; and weight of the thermoplastic film layer is between 6 and 45 g/m 2.