mhurhangee/ep-ind-claims huggingface dataset:
An optoelectronic sensor for detecting the position of an object in a detection region, in particular of a workpiece, the sensor having a light transmitter for transmitting a light signal into the detection region, a light receiver with a plurality of light receiving elements for detecting received light from the detection region, a plurality of distance determination units for determining a respective distance value to a region of the object based on a light time of flight between transmission of the light signal and reception of the remitted light signal remitted or reflected at the object, wherein the distance determination units are each connected to individual or groups of light receiving elements, a control and evaluation unit for further processing the distance values, and a selection unit for connecting distance determination units to light receiving elements, characterized in that the selection unit is configured to variably connect distance determination units to light receiving elements in order to select desired regions of the object and to measure a characteristic height contour of the object, and in that the control and evaluation unit compares the distance values with reference values in a target position of the object for the position detection of the object.
A winch comprising a first end frame and a second end frame, a drum coupled between the first and second end frames (16, 14) and configured to rotate to wind or unwind a cable, a brake configured to resist rotation of the drum when engaged, a switch configured to cause the brake to engage the drum when the switch is activated, a slack arm frame having a first end engaged with the cable and a second end pivotally coupled between the first and second end frames (14, 16), wherein the slack arm frame is configured to pivot between a first position when the cable is taut and a second position when the cable is slack, and a cam coupled to the slack arm frame and configured to rotate with the slack arm frame to activate the switch when the slack arm frame is in the second position, characterised in that the winch further comprises a mounting bracket coupling the switch to the first end frame, wherein the mounting bracket is adjustable between a plurality of locations on the first end frame by loosening and tightening a single fastener, each of the plurality of locations positioning the switch at a different distance from the cam.
Single-lip drill having one rake face or double-lip drill having two rake faces, comprising a drill head, the drill head having an axis of rotation, a drilling diameter and one or two cutting edges, each cutting edge being associated with a planar rake face, a rake face and a planar wall in each case delimiting a longitudinal groove, at least one depression being incorporated in the rake face, characterized in that a narrow strip of the rake face remains between an edge of the depression and the main cutting edge and between the edge of the depression and the secondary cutting edge.
A vacuum adiabatic body comprising: a first plate configured to define at least a portion of a wall for a first space; a second plate configured to define at least a portion of a wall for a second space having a temperature different from that of the first space; a seal configured to seal the first plate and the second plate so as to provide a third space that has a temperature between a temperature of the first space and a temperature of the second space and is in a vacuum state; a support configured to maintain the third space; a conductive resistance sheet configured to reduce a heat transfer amount between the first plate and the second plate; an exhaust port configured to discharge a gas in the third space; a mullion configured to divide the first space into two spaces; and a connection pipe supported on the mullion so as to be fixed in position, the connection pipe being configured to connect the two space to each other; characterized in that: the vacuum adiabatic body further comprises a mullion seating frame coupled to the first plate and configured to support the mullion, and wherein the connection pipe has a groove (512, 516) with which the mullion seating frame is hooked. a first plate configured to define at least a portion of a wall for a first space; a second plate configured to define at least a portion of a wall for a second space having a temperature different from that of the first space; a seal configured to seal the first plate and the second plate so as to provide a third space that has a temperature between a temperature of the first space and a temperature of the second space and is in a vacuum state; a support configured to maintain the third space; a conductive resistance sheet configured to reduce a heat transfer amount between the first plate and the second plate; an exhaust port configured to discharge a gas in the third space; a mullion configured to divide the first space into two spaces; and a connection pipe supported on the mullion so as to be fixed in position, the connection pipe being configured to connect the two space to each other;
Method for manufacturing a dual channel FinFET device having at least one channel subjected to a mobility enhancement strain, the method comprising: - providing a substrate comprising at least two fin structures (I, II) separated by an isolation region, each of the fin structures in physical contact with a source region and a drain region, o wherein the at least two fin structures (I, II) comprise an upper layer suitable to form a n-type or p-type channel and a strain-relaxed buffer underlying and in contact with said upper layer, and overlying and in contact with the substrate, o wherein the composition of the upper layer and the SRB is selected such that the upper layer of a first fin structure is subjected to a first mobility enhancing strain in the as-grown state, the first mobility enhancing strain being applied in a longitudinal direction from the source region to the drain region, - performing an ion implantation in at least a part of the upper layer of a second fin structure, thereby forming an amorphous layer, then - performing a re-crystallization by laser anneal of the amorphous layer, thereby forming a strain-relaxed upper layer of the second fin structure, wherein the wavelength of the laser anneal is adapted such that the energy is absorbed by the amorphous regions only. - providing a substrate comprising at least two fin structures (I, II) separated by an isolation region, each of the fin structures in physical contact with a source region and a drain region, o wherein the at least two fin structures (I, II) comprise an upper layer suitable to form a n-type or p-type channel and a strain-relaxed buffer underlying and in contact with said upper layer, and overlying and in contact with the substrate, o wherein the composition of the upper layer and the SRB is selected such that the upper layer of a first fin structure is subjected to a first mobility enhancing strain in the as-grown state, the first mobility enhancing strain being applied in a longitudinal direction from the source region to the drain region, o wherein the at least two fin structures (I, II) comprise an upper layer suitable to form a n-type or p-type channel and a strain-relaxed buffer underlying and in contact with said upper layer, and overlying and in contact with the substrate, o wherein the composition of the upper layer and the SRB is selected such that the upper layer of a first fin structure is subjected to a first mobility enhancing strain in the as-grown state, the first mobility enhancing strain being applied in a longitudinal direction from the source region to the drain region, - performing an ion implantation in at least a part of the upper layer of a second fin structure, thereby forming an amorphous layer, then - performing a re-crystallization by laser anneal of the amorphous layer, thereby forming a strain-relaxed upper layer of the second fin structure, wherein the wavelength of the laser anneal is adapted such that the energy is absorbed by the amorphous regions only.
A dental imaging system for imaging a dental arrangement including an upper teeth arch and a lower teeth arch in an oral cavity of a patient, the dental imaging system including an outer arch-shaped structure and an inner centralizer structure coupled to each other, and being installable inside the oral cavity in a predefined position with the upper and lower teeth between the outer arch-shaped structure and a camera hub of the inner centralizer structure, and wherein the outer arch-shaped structure has a plurality of outer cameras arranged on a side of the outer arch-shaped structure in such a way that, when the dental imaging system is installed in the predefined position, the outer cameras focus on a front side of both the upper and lower teeth arches; and the inner centralizer structure includes the camera hub and a support structure holding the camera hub, and the camera hub including a plurality of inner cameras arranged in such a way that, when the dental imaging system is installed in the predefined position, the inner cameras focus on a back side of both the upper and lower teeth arches. the outer arch-shaped structure has a plurality of outer cameras arranged on a side of the outer arch-shaped structure in such a way that, when the dental imaging system is installed in the predefined position, the outer cameras focus on a front side of both the upper and lower teeth arches; and the inner centralizer structure includes the camera hub and a support structure holding the camera hub, and the camera hub including a plurality of inner cameras arranged in such a way that, when the dental imaging system is installed in the predefined position, the inner cameras focus on a back side of both the upper and lower teeth arches.
A process for producing a crystalline 5-aminosalicylic acid (5-ASA) having a bulk density of from 300 g/l to 700 g/l and grain size distribution of X = 1 μm - 30 μm, X = 15 μm - 60 μm, X = 35 μm - 220 μm, comprising the following steps: (i) crystallizing 5-ASA from an aqueous solution of 5-ASA with or without the addition of protic or aprotic polar solvents in a concentration range of from 0 to 100% at a temperature of from 25 °C to 150 °C and at a pH-value of from 3.0 to 5.0 to form a suspension of 5-ASA; and (ii) wet grinding the suspension in a homogenizer. (i) crystallizing 5-ASA from an aqueous solution of 5-ASA with or without the addition of protic or aprotic polar solvents in a concentration range of from 0 to 100% at a temperature of from 25 °C to 150 °C and at a pH-value of from 3.0 to 5.0 to form a suspension of 5-ASA; and (ii) wet grinding the suspension in a homogenizer.
Plug connector with at least one spring or blade contact element arranged in a housing, said spring or blade contact element being connected in an electrically conductive manner to at least one displacement insulation contact, which contacts and fixes at least one single-core, insulated cable (301, 302, 303, 304), wherein the at least one displacement insulation contact is arranged on a support, which is integrally connected with the spring or blade contact element, rotated by 90° in the plug direction of the spring or blade contact element relative to the spring or blade contact element such that the at least one single-core, insulated cable is contacted and fixed in the plug direction passing through a displacement insulation contact, wherein the housing has two housing parts (100, 200), which are slidable into each other and are lockable to each other by simultaneous contacting and fixing of the at least one single-core, insulated cable, wherein the at least one spring or blade contact element together with the at least one displacement insulation contact rotated by 90° and the at least one clamping element following said displacement insulation are arranged in the first housing part and in that the at least one single-core, insulated cable (301, 302, 303, 304) to be contacted and to be fixed is arranged in a cable duct in the second housing part such that it lies on the at least one displacement insulation contact prior to the two housing parts (100, 200) sliding into each other and wherein at least one clamping element is formed on the side of the at least one displacement insulation contact facing away from the at least one spring or blade contact element on the support, said clamping element, in the contacted and fixed state of the at least one single-core, insulated cable (301, 302, 303, 304), clamping the insulation in order to form a strain relief.
- A dishwasher comprising a body; a tub wherein the processes of washing, rinsing and drying are performed; a drying duct that provides the drying of the items washed; a drying fan that provides the flow of the air in the drying duct; a heat pump system that is disposed at the lower part of the tub and that provides the heating of the washing water; a casing that constitutes the lower section of the body and encloses the region wherein the heat pump system is integrated; a plinth that is disposed at the front surface of the casing, and a compressor, a condenser, an evaporator, at least one evaporator fan and an expansion element that constitute the heat pump system, wherein the evaporator fan is arranged to blow air onto the evaporator; characterized by an air duct comprising at least one rear opening that is arranged at the lower rear side of the body and through which the air passing over the evaporator is blown, at least one front opening that is arranged in the plinth at the lower front side of the body, and that directs the air received from the rear opening so as to be sent to the outer environment through the front opening and arranged to - collect and take back into the body the air blown by the evaporator fan to pass over the evaporator and exited to the outer environment from the lower rear side of the body, - deliver the collected air from the rear side to the front side through the body, and - send the collected air back to the outer environment from the lower front side of the body. - collect and take back into the body the air blown by the evaporator fan to pass over the evaporator and exited to the outer environment from the lower rear side of the body, - deliver the collected air from the rear side to the front side through the body, and - send the collected air back to the outer environment from the lower front side of the body.
A method for sending a demodulation reference signal, performed by a transmit end device, wherein the method comprises: generating a demodulation reference signal corresponding to a fixed port number, wherein a sequence length of the demodulation reference signal is related to an attribute of the demodulation reference signal, wherein the sequence length of the demodulation reference signal is represented as a ∗ N, wherein a is a quantity of resource elements occupied by the demodulation reference signal in one resource unit, and N is a quantity of resource units that carry the demodulation reference signal in full bandwidth; and sending the demodulation reference signal; wherein a sequence of the demodulation reference signal comprises K same basic sequences, each basic sequence is corresponding to one time-frequency resource that carries the demodulation reference signal, and K is an integer greater than or equal to 2; wherein the method further comprises: obtaining a basic sequence of the demodulation reference signal by selecting (a ∗ N)/K values from a first preset sequence. generating a demodulation reference signal corresponding to a fixed port number, wherein a sequence length of the demodulation reference signal is related to an attribute of the demodulation reference signal, wherein the sequence length of the demodulation reference signal is represented as a ∗ N, wherein a is a quantity of resource elements occupied by the demodulation reference signal in one resource unit, and N is a quantity of resource units that carry the demodulation reference signal in full bandwidth; and sending the demodulation reference signal; wherein a sequence of the demodulation reference signal comprises K same basic sequences, each basic sequence is corresponding to one time-frequency resource that carries the demodulation reference signal, and K is an integer greater than or equal to 2; wherein the method further comprises: obtaining a basic sequence of the demodulation reference signal by selecting (a ∗ N)/K values from a first preset sequence.
A multilayered polymeric film for covering an agricultural structure or greenhouse, wherein the film contains: (i) at least one layer comprising a polypropylene, polybutene, thermoplastic polyurethane, polyester, or combinations of two or more thereof, and (ii) at least one further polymer layer connected thereto, characterised in that layer (i) and layer (ii) have an average delamination strength of less than 250 g/15 mm when measured using ASTM D-1876; the at least one further polymer layer (ii) comprises a polymeric material selected from the group consisting of polyethylene, ethylene vinyl acetate copolymer, ethylene butyl acrylate copolymer and combinations of two or more thereof; and the film has a luminous transmittance greater than 30% when measured using ASTM-D1003-92. (i) at least one layer comprising a polypropylene, polybutene, thermoplastic polyurethane, polyester, or combinations of two or more thereof, and (ii) at least one further polymer layer connected thereto, characterised in that layer (i) and layer (ii) have an average delamination strength of less than 250 g/15 mm when measured using ASTM D-1876; the at least one further polymer layer (ii) comprises a polymeric material selected from the group consisting of polyethylene, ethylene vinyl acetate copolymer, ethylene butyl acrylate copolymer and combinations of two or more thereof; and the film has a luminous transmittance greater than 30% when measured using ASTM-D1003-92.
A heat transfer assembly (100, 101) for a spacecraft, comprising: an equipment panel having an east end and a west end; an east radiator panel (130A, 130B) coupled to the east end of the equipment panel; a west radiator panel (120A, 120B) coupled to the west end of the equipment panel; and the heat transfer assembly (100, 101) characterized by_a plurality of flexible heat pipes each comprising a first rigid tube thermally coupled to the east radiator panel (130A, 130B), a second rigid tube coupled to the equipment panel, a third rigid tube thermally coupled to the west radiator panel (120A, 120B), a first flexible tube sealingly coupled between the first and second rigid tubes (141A, 141C), and a second flexible tube sealingly coupled between the second and third rigid tubes (141C, 141E), wherein the equipment panel is configured to retain one or more equipment modules (50A, 50B) in thermal contact with the second rigid tube of at least one of the plurality of flexible heat pipes. an equipment panel having an east end and a west end; an east radiator panel (130A, 130B) coupled to the east end of the equipment panel; a west radiator panel (120A, 120B) coupled to the west end of the equipment panel; and the heat transfer assembly (100, 101) characterized by_a plurality of flexible heat pipes each comprising a first rigid tube thermally coupled to the east radiator panel (130A, 130B), a second rigid tube coupled to the equipment panel, a third rigid tube thermally coupled to the west radiator panel (120A, 120B), a first flexible tube sealingly coupled between the first and second rigid tubes (141A, 141C), and a second flexible tube sealingly coupled between the second and third rigid tubes (141C, 141E),
A method of making an article comprising: providing a substrate; electrostatically depositing particles such that the particles are bonded to the substrate wherein the particles comprise i) a plurality of particles having a median primary particle size of less than 75 microns, wherein the particles comprise abrasive particles and ii) discrete hydrophobic unaggregated nanoparticles, wherein the nanoparticles have an average primary particle size of less than 100 nanometers; wherein the nanoparticles comprise a metal oxide material and the nanoparticles comprise a hydrophobic surface treatment, wherein the hydrophobic surface treatment comprises a substituted or unsubstituted hydrocarbon group having at least 6 carbon atoms. providing a substrate; electrostatically depositing particles such that the particles are bonded to the substrate wherein the particles comprise i) a plurality of particles having a median primary particle size of less than 75 microns, wherein the particles comprise abrasive particles and ii) discrete hydrophobic unaggregated nanoparticles, wherein the nanoparticles have an average primary particle size of less than 100 nanometers; i) a plurality of particles having a median primary particle size of less than 75 microns, wherein the particles comprise abrasive particles and ii) discrete hydrophobic unaggregated nanoparticles, wherein the nanoparticles have an average primary particle size of less than 100 nanometers; wherein the nanoparticles comprise a metal oxide material and the nanoparticles comprise a hydrophobic surface treatment, wherein the hydrophobic surface treatment comprises a substituted or unsubstituted hydrocarbon group having at least 6 carbon atoms.
A method of simulating digital assistant-based applications, the method comprising: providing, by a data processing system, for display in a web browser, an inner iframe configured to load an application, provided by a developer device, configured to integrate with a digital assistant; providing, by the data processing system, for display in the web browser, an outer iframe configured with a two-way communication protocol to communicate with the inner iframe; and providing, by the data processing system, a state machine to identify a current state of the application loaded in the inner iframe, and load a next state of the application responsive to a control input. providing, by a data processing system, for display in a web browser, an inner iframe configured to load an application, provided by a developer device, configured to integrate with a digital assistant; providing, by the data processing system, for display in the web browser, an outer iframe configured with a two-way communication protocol to communicate with the inner iframe; and providing, by the data processing system, a state machine to identify a current state of the application loaded in the inner iframe, and load a next state of the application responsive to a control input.