mhurhangee/ep-ind-claims huggingface dataset:
A flexible silicone mould comprising a bowl and a peripheral rim defining an opening of the bowl, having at the rim two gripping zones, generally flat, at least approximately opposed on the rim, the two zones having a length sufficient to enable a user to control the geometry of the rim, as well as whether the horizontality and coplanar state of the two gripping zones, each gripping zone comprising an approximately flat reinforcement embedded in the silicone, and each reinforcement is divided into two parts (51, 52) approximately symmetrical with respect to a plane passing approximately through the centre of the gripping zones.
A method of controlling a transmission of a device-to-device, D2D, signal of a first user equipment, UE, in a wireless communication system, the method comprising: performing a procedure for transmitting a device-to-device channel, D2DCH, signal in a first D2D subframe among a plurality of D2D subframes, wherein the first D2D subframe includes a first resource region for a device-to-device synchronization signal, D2DSS, transmission of a second UE and a second resource region for a guard region of the D2DSS of the second UE; and characterized by based on a third resource region for the D2DCH signal transmission of the first UE overlapping with the second resource region, dropping the D2DCH signal in the first D2D subframe regardless of overlap between the third resource region and the first resource region, and based on the third resource region not overlapping with any of the first resource region and the second resource region, transmitting the D2DCH signal. performing a procedure for transmitting a device-to-device channel, D2DCH, signal in a first D2D subframe among a plurality of D2D subframes, wherein the first D2D subframe includes a first resource region for a device-to-device synchronization signal, D2DSS, transmission of a second UE and a second resource region for a guard region of the D2DSS of the second UE; and characterized by based on a third resource region for the D2DCH signal transmission of the first UE overlapping with the second resource region, dropping the D2DCH signal in the first D2D subframe regardless of overlap between the third resource region and the first resource region, and based on the third resource region not overlapping with any of the first resource region and the second resource region, transmitting the D2DCH signal.
An agricultural machine, comprising: - a frame provided with a pair of wheels designed to enable the movement of the agricultural machine in one direction of movement and placed side-by-side and spaced transversely in said direction of movement; - at least two harvesting devices (4, 5) for agricultural products connected to the frame that, in at least one work position, are arranged frontally to said wheels and aligned with each other transversely to said direction of movement; - unloading equipment arranged operationally downstream of the harvesting devices (4, 5) to receive the harvested agricultural products and to move them in an unloading direction transverse to the direction of movement, wherein, in at least one work position, the unloading equipment: is placed between said harvesting devices (4, 5) and said wheels, and comprises at least one central unloading device and two lateral unloading devices aligned between them transversely to said direction of movement; characterised in that said central unloading device is movable with respect to the harvesting devices (4, 5) between said work position, wherein it directly receives the harvested agricultural products from at least one first harvesting device, and a non-operational position, wherein it is offset with respect to the work position so as to enable the harvested agricultural products to fall immediately downstream of said at least one first harvesting device. - a frame provided with a pair of wheels designed to enable the movement of the agricultural machine in one direction of movement and placed side-by-side and spaced transversely in said direction of movement; - at least two harvesting devices (4, 5) for agricultural products connected to the frame that, in at least one work position, are arranged frontally to said wheels and aligned with each other transversely to said direction of movement; - unloading equipment arranged operationally downstream of the harvesting devices (4, 5) to receive the harvested agricultural products and to move them in an unloading direction transverse to the direction of movement, wherein, in at least one work position, the unloading equipment: is placed between said harvesting devices (4, 5) and said wheels, and comprises at least one central unloading device and two lateral unloading devices aligned between them transversely to said direction of movement; is placed between said harvesting devices (4, 5) and said wheels, and comprises at least one central unloading device and two lateral unloading devices aligned between them transversely to said direction of movement;
Medical instrumentation, in particular, for implanting an acetabular cup, comprising a medical alignment instrument with a shaped body (18; 18'; 18"), which has a patient-specific bone abutment surface (54; 54') facing away from the shaped body (18; 18'; 18") and deviating from a spherical surface section, the bone abutment surface being shaped so as to correspond to a bone surface of the patient, wherein the shaped body (18; 18'; 18") has at least one viewing edge (60, 62, 64; 60', 62'; 108) with a viewing height, wherein the viewing edge (60, 62, 64; 60', 62'; 108) adjoins the patient-specific bone abutment surface (54; 54'), and wherein a transition between the viewing edge (60, 62, 64; 60', 62'; 108) and the patient-specific bone abutment surface (54; 54') is tangentially discontinuous, characterized in that the shaped body (18; 18'; 18") is of dish-shaped construction and has a constant or substantially constant thickness and in that the bone abutment surface (54; 54') has a contour which corresponds at least to a portion of the fossa and/or to a portion of the acetabular notch.
A method for curing a resin composition, said method comprising the step of: (a) irradiating a resin composition with laser light having a wavelength of 600nm or more and 1500nm or less directly and/or indirectly for 5 seconds or more, the resin composition containing (i) an epoxy resin, (ii) an encapsulated curing agent including a core that contains a curing agent and a shell that covers the core, (iii) a filler, and (iv) a color material, the shell being configured to be cleaved by heat energy applied by irradiation with the laser light, the color material being one or more color materials selected from the group consisting of black-based organic pigments, red-based organic pigments, blue-based organic pigments, green-based organic pigments, yellow-based organic pigments, black-based inorganic pigments, red-based inorganic pigments, blue-based inorganic pigments, green-based inorganic pigments, yellow-based inorganic pigments, black-based dyes, red-based dyes, blue-based dyes, green-based dyes, and yellow-based dyes, the filler being one or more fillers selected from the group consisting of fused silica, crystalline silica, and glass beads, each of which has a light-transmitting property, the color material being contained in an amount of not less than 0.01 parts by weight and not more than 20 parts by weight relative to 100 parts by weight of the epoxy resin, the filler being contained in an amount of not less than 5 parts by weight and not more than 80 parts by weight relative to 100 parts by weight of the epoxy resin. (a) irradiating a resin composition with laser light having a wavelength of 600nm or more and 1500nm or less directly and/or indirectly for 5 seconds or more,
A solid oxide fuel cell configured to generate electricity from a fuel gas and an oxidant gas, the solid oxide fuel cell comprising: a cell module; a fuel electrode interconnector; and an air electrode interconnector, the cell module being sandwiched between the fuel electrode interconnector and the air electrode interconnector, wherein the cell module includes: a cell substrate having gas permeability; a fuel electrode; an air electrode; and a solid electrolyte, one electrode among the fuel electrode and the air electrode is formed on the cell substrate, the solid electrolyte is formed on the one electrode, the other electrode is formed on the solid electrolyte, the fuel electrode interconnector includes a plurality of fuel gas channels, the air electrode interconnector includes a plurality of oxidant gas channels, the fuel gas channels and the oxidant gas channels form a plurality of linear channels that are arranged parallel to each other, the solid oxide fuel cell is configured to, when generating electricity, cause the fuel gas to flow through the fuel gas channels and the oxidant gas to flow through the oxidant gas channels in opposite directions within the plane of the cell module, and a gas permeability of the cell substrate has been reduced by providing a dense portion formed by compressing the cell substrate or the gas permeability of the cell substrate has been reduced by providing a gas penetration barrier member on the cell substrate, such that a gas permeability of a central portion of the cell substrate in a gas flow direction is lower than a gas permeability of an inlet portion and an outlet portion of the cell substrate, the gas flow direction being a direction in which the fuel gas is caused to flow through the fuel gas channels or in which the oxidant gas is caused to flow through the oxidant gas channels. a cell substrate having gas permeability; a fuel electrode; an air electrode; and a solid electrolyte,
A pharmaceutical composition comprising a therapeutically effective amount of a T cell for use in a method of treating with chimeric antigen receptor therapy a subject having a disease, wherein a recombinant nucleic acid sequence encoding a chimeric antigen receptor is integrated at a first site within the genome of the T cell such that the CAR is expressed by the T cell at the surface of the T cell, wherein the expression of the recombinant nucleic acid sequence is under the control of an endogenous promoter of a T cell receptor complex gene, and wherein the integration of the recombinant nucleic acid sequence at the first site prevents expression of a functional TCR complex at the surface of the cell, wherein: (i) the disease is an infectious disease, and wherein CAR binds to an antigen of the infectious disease pathogen; (ii) the disease is an autoimmune disease, wherein the CAR binds to an antigen of the autoimmune disease and wherein the T cell is a regulatory T cell; or (iii) the disease is a cancer selected from the group consisting of a carcinoma, sarcoma, leukemia, lymphoma, multiple myeloma, melanoma, brain tumor, spinal cord tumor, germ cell tumor, neuroendocrine tumor, and carcinoid tumor and wherein the CAR binds to a cancer antigen of the cancer. (i) the disease is an infectious disease, and wherein CAR binds to an antigen of the infectious disease pathogen; (ii) the disease is an autoimmune disease, wherein the CAR binds to an antigen of the autoimmune disease and wherein the T cell is a regulatory T cell; or (iii) the disease is a cancer selected from the group consisting of a carcinoma, sarcoma, leukemia, lymphoma, multiple myeloma, melanoma, brain tumor, spinal cord tumor, germ cell tumor, neuroendocrine tumor, and carcinoid tumor and wherein the CAR binds to a cancer antigen of the cancer.
A system for individually checking animals which may each be provided with an identification label, wherein the system is provided with at least a read-out device for generating an electromagnetic interrogation field and registering a response signal generated by an identification label when the label is in the interrogation field, wherein the system is further provided with at least an automatic feeder (24,10) for feeding an animal and a control system which is communicatively coupled (18,20) with the read-out device and the automatic feeder (24,10), wherein the control system is so configured that it controls the automatic feeder (24,10) for dispensing feed when, at least, an identification label has been detected by the read-out device, wherein the system is furthermore provided with detection means for detecting a presence of the animal, wherein the control system is further communicatively coupled with the detection means and is so configured that it generally also controls the automatic feeder (24,10) for dispensing feed when the animal has been detected by the detection means and no identification label has been detected by the read-out device.
A method for controlling exposure of a camera, comprising the steps of: determining an exposure time and a gain used by the camera when capturing a first image in a video sequence, calculating a darkness level with respect to the first image (200, 400) as a product of at least the exposure time and the gain, calculating a saturation level with respect to the first image (200, 400) as a ratio between a number of saturated pixels and a number of completely dark pixels in the first image, if the saturation level exceeds a first limit, decreasing a target value (T old) for a mean intensity value of pixels in images captured by the camera by an amount, and controlling exposure of the camera for images subsequent to the first image in the video sequence, such that the mean intensity value of pixels in the subsequent images approaches the decreased target value (T new), characterized in that the amount of decrease of the target value (T old) for the mean intensity value of pixels in images captured by the camera is an increasing function of the darkness level. determining an exposure time and a gain used by the camera when capturing a first image in a video sequence, calculating a darkness level with respect to the first image (200, 400) as a product of at least the exposure time and the gain, calculating a saturation level with respect to the first image (200, 400) as a ratio between a number of saturated pixels and a number of completely dark pixels in the first image, if the saturation level exceeds a first limit, decreasing a target value (T old) for a mean intensity value of pixels in images captured by the camera by an amount, and controlling exposure of the camera for images subsequent to the first image in the video sequence, such that the mean intensity value of pixels in the subsequent images approaches the decreased target value (T new), characterized in that the amount of decrease of the target value (T old) for the mean intensity value of pixels in images captured by the camera is an increasing function of the darkness level.
A brake device for a conveying device for braking a conveying vehicle moving along a movement path, comprising at least one brake member for creating a braking contact with the conveying vehicle, characterised in that the brake member comprises at least one deflection member (5, 6) and at least one flexible brake body (2a, 2b), said brake body (2a, 2b) being revolvingly led around the at least one deflection member (5, 6), wherein the brake body (2a, 2b) is designed as a metal chain with a braking-active chain section which is able to exert a contact pressure or a contact force upon the conveying vehicle by the intrinsic weight of a part of the brake body (2a, 2b) for creating the braking contact with the conveying vehicle.
An input module for an industrial controller, comprising: a plurality of input terminals configured to receive an input signal from a remote device; a logic circuit configured to process the input signal from each input terminal; a memory device configured to store a series of instructions; a processor a clock circuit generating a time signal corresponding to the present time and transmitting the time signal to the processor; and the processor being in communication with the logic circuit, wherein the processor is configured to receive the processed input signals from the logic circuit and configured to execute the series of instructions to: generate a plurality of override signals, each override signal corresponding to one of the input terminals; replace the processed input signal with the override signal for the corresponding overridden input terminal; and store the override signal and a time signal corresponding to the override signal in a buffer. a plurality of input terminals configured to receive an input signal from a remote device; a logic circuit configured to process the input signal from each input terminal; a memory device configured to store a series of instructions; a processor a clock circuit generating a time signal corresponding to the present time and transmitting the time signal to the processor; and the processor being in communication with the logic circuit, wherein the processor is configured to receive the processed input signals from the logic circuit and configured to execute the series of instructions to: generate a plurality of override signals, each override signal corresponding to one of the input terminals; replace the processed input signal with the override signal for the corresponding overridden input terminal; and store the override signal and a time signal corresponding to the override signal in a buffer. generate a plurality of override signals, each override signal corresponding to one of the input terminals; replace the processed input signal with the override signal for the corresponding overridden input terminal; and store the override signal and a time signal corresponding to the override signal in a buffer.
Method performed by a registration system for controlling labelling in units of the type having sensing means, encoding means and a computing and control system, characterised in that the said system performs the steps of: - Determining which part of the printed matter of a test label in a label film has maximum measure of signal-to-noise ratio or contrast to constitute a reference region; - Identifying a processing region of a subsequent processing label of the label film; - Comparing corresponding points of said processing region with said reference region and computing the length of the processing label; - Reading each processing region of each subsequent processing label, comparing it with said reference region, and computing the length of the processing label, and - Controlling an operation of the labelling machine as a function of the label length computed in the previous step. - Determining which part of the printed matter of a test label in a label film has maximum measure of signal-to-noise ratio or contrast to constitute a reference region; - Identifying a processing region of a subsequent processing label of the label film; - Comparing corresponding points of said processing region with said reference region and computing the length of the processing label; - Reading each processing region of each subsequent processing label, comparing it with said reference region, and computing the length of the processing label, and - Controlling an operation of the labelling machine as a function of the label length computed in the previous step.
Flush valve, in particular a urinal flush valve, comprising a housing with a water guide channel with an inlet opening and an outlet opening, and a valve blocking or releasing the water guide channel between inlet opening and outlet opening, wherein the water guide channel extends from the inlet opening with an inlet-side channel section along a first axis and extends to the outlet opening with an outlet-side channel section along a second axis, wherein the first axis and the second axis lie in a common plane and extend collinearly to one another, wherein the water guide channel between the channel section on the inlet side and the channel section on the outlet side has a deflecting section which extends at an angle inclined at an angle to the first axis and/or to the second axis in such a way that the deflecting section is deflected with respect to the orientation of the channel section on the inlet side or of the channel section on the outlet side, and wherein the valve is arranged in said deflecting section. a housing with a water guide channel with an inlet opening and an outlet opening, and a valve blocking or releasing the water guide channel between inlet opening and outlet opening, wherein the water guide channel extends from the inlet opening with an inlet-side channel section along a first axis and extends to the outlet opening with an outlet-side channel section along a second axis, wherein the first axis and the second axis lie in a common plane and extend collinearly to one another, wherein the water guide channel between the channel section on the inlet side and the channel section on the outlet side has a deflecting section which extends at an angle inclined at an angle to the first axis and/or to the second axis in such a way that the deflecting section is deflected with respect to the orientation of the channel section on the inlet side or of the channel section on the outlet side, and wherein the valve is arranged in said deflecting section.
Modular interconnectivity assembly for interconnecting elements of a point of sale system, the modular interconnectivity assembly including at least one interconnectivity module comprising: an Input/Output-hub (102; I/O) having at least one upstream facing port and at least two downstream facing ports (106, 108); at least one upstream connector connected to the at least one upstream facing port of the Input/Output-hub (102; I/O) and configured to communicate in accordance with a first communication protocol; at least one downstream connector connected to a first downstream facing port of the at least two downstream facing ports (106, 108) and configured to communicate in accordance with the first communication protocol; and at least one interface connected to a second downstream facing port of the at least two downstream facing ports (106, 108) and configured to communicate in accordance with a second communication protocol, different from the first communication protocol. an Input/Output-hub (102; I/O) having at least one upstream facing port and at least two downstream facing ports (106, 108); at least one upstream connector connected to the at least one upstream facing port of the Input/Output-hub (102; I/O) and configured to communicate in accordance with a first communication protocol; at least one downstream connector connected to a first downstream facing port of the at least two downstream facing ports (106, 108) and configured to communicate in accordance with the first communication protocol; and at least one interface connected to a second downstream facing port of the at least two downstream facing ports (106, 108) and configured to communicate in accordance with a second communication protocol, different from the first communication protocol.