mhurhangee/patent-ind-claim-en huggingface dataset:
A display screen assembly , comprising: a display screen having a display area and a non-display area surrounding the display area ; a connector comprising a first joining portion , a second joining portion bending from an edge of the first joining portion , and a third joining portion bending from the second joining portion , the first joining portion being coupled to a top surface of the display screen and located in the non-display area of the display screen , the display area being exposed out of the first joining portion , the second joining portion being opposite to a side wall of the display screen , and the third joining portion being fitted to a bottom surface of the display screen and corresponding to the non-display area ; a cover plate having a lower surface coupled to the top surface of the display screen and to the first joining portion ; and a bracket having a top portion joined to the bottom surface of the display screen and to the third joining portion , wherein the first joining portion has a flat straight shape so as to be close fitted with the top surface of the display screen , and the second joining portion has a flat straight shape so as to be close fitted with the side wall of the display screen , wherein the first joining portion is adhered to the top surface of the display screen , and the second joining portion is adhered to the side wall of the display screen . a display screen having a display area and a non-display area surrounding the display area ; a connector comprising a first joining portion , a second joining portion bending from an edge of the first joining portion , and a third joining portion bending from the second joining portion , the first joining portion being coupled to a top surface of the display screen and located in the non-display area of the display screen , the display area being exposed out of the first joining portion , the second joining portion being opposite to a side wall of the display screen , and the third joining portion being fitted to a bottom surface of the display screen and corresponding to the non-display area ; a cover plate having a lower surface coupled to the top surface of the display screen and to the first joining portion ; and a bracket having a top portion joined to the bottom surface of the display screen and to the third joining portion , wherein the first joining portion has a flat straight shape so as to be close fitted with the top surface of the display screen , and the second joining portion has a flat straight shape so as to be close fitted with the side wall of the display screen , wherein the first joining portion is adhered to the top surface of the display screen , and the second joining portion is adhered to the side wall of the display screen .
A heating, ventilation, and air conditioning (HVAC) system including first and second fluids, the HVAC system comprising: a first heat exchanger including a membrane adapted for channeling the first fluid through the first heat exchanger , the membrane disposed for heat transfer between the first fluid and the second fluid, the membrane defining an inlet , characterized in that : the first heat exchanger is configured for being positioned such that the inlet has an inlet height relative to grade ; and the HVAC system further comprises a refrigerant sub-system containing a third fluid; and at least one closed loop sub-system containing the first fluid adapted for transferring heat from the first heat exchanger to a second heat exchanger , the second heat exchanger adapted for transferring heat from the first fluid to the third fluid in the refrigerant sub-system , the closed loop sub-system comprising: an expansion tank containing the first fluid, wherein the expansion tank is configured for being positioned such that a level of the first fluid within the expansion tank has a level height relative to grade , wherein the expansion tank is configured for being positioned relative to the first heat exchanger such that the inlet height is greater than the level height and such that a pressure of the first fluid at the inlet is maintained at a negative pressure to maintain the membrane in a collapsed configuration. the first heat exchanger is configured for being positioned such that the inlet has an inlet height relative to grade ; and the HVAC system further comprises a refrigerant sub-system containing a third fluid; and at least one closed loop sub-system containing the first fluid adapted for transferring heat from the first heat exchanger to a second heat exchanger , the second heat exchanger adapted for transferring heat from the first fluid to the third fluid in the refrigerant sub-system , the closed loop sub-system comprising: an expansion tank containing the first fluid, wherein the expansion tank is configured for being positioned such that a level of the first fluid within the expansion tank has a level height relative to grade , wherein the expansion tank is configured for being positioned relative to the first heat exchanger such that the inlet height is greater than the level height and such that a pressure of the first fluid at the inlet is maintained at a negative pressure to maintain the membrane in a collapsed configuration.
A method for performing channel detection in a physical random access procedure, applied in shared spectrum, comprising: determining , by a terminal device , a target channel access type, wherein the target channel access type comprises a type 1 channel access or a type 2 channel access, further characterized by : determining , by the terminal device according to the target channel access type, a target time domain resource for the terminal device to perform transmission of a physical random access channel, PRACH; wherein the determining the target channel access type by the terminal device comprises: if the target time domain resource belongs to a shared channel occupancy time shared by a network device with the terminal device, determining, by the terminal device the type2 channel access is the target channel access type; if the target time domain resource does not belong to a shared channel occupancy time shared by a network device with the terminal device, determining, by the terminal device a type1 channel access with the highest priority is the target channel access type. determining , by a terminal device , a target channel access type, wherein the target channel access type comprises a type 1 channel access or a type 2 channel access, further characterized by : determining , by the terminal device according to the target channel access type, a target time domain resource for the terminal device to perform transmission of a physical random access channel, PRACH; wherein the determining the target channel access type by the terminal device comprises: if the target time domain resource belongs to a shared channel occupancy time shared by a network device with the terminal device, determining, by the terminal device the type2 channel access is the target channel access type; if the target time domain resource does not belong to a shared channel occupancy time shared by a network device with the terminal device, determining, by the terminal device a type1 channel access with the highest priority is the target channel access type. if the target time domain resource belongs to a shared channel occupancy time shared by a network device with the terminal device, determining, by the terminal device the type2 channel access is the target channel access type; if the target time domain resource does not belong to a shared channel occupancy time shared by a network device with the terminal device, determining, by the terminal device a type1 channel access with the highest priority is the target channel access type.
An ophthalmic lens comprising a substrate with two main faces, and, on at least one face, a first coating which is in contact with a second coating , the first coating being positioned between the second coating and the substrate , the first coating is a release layer , adapted so that it can be selectively activated in order to diminish mechanical properties or adhesion that enable the second coating to be fastened to the substrate before activation of the first coating , such that the second coating is arranged to be removed by activation of the first coating and such that the ophthalmic lens comprising a substrate remains free of the second coating.
A method for manufacturing a bearing ring of a rolling bearing, the method comprising a series of steps of: cutting out an annular member from a material; forming a surface-hardened layer on the annular member, quenching and tempering the annular member; and polishing inner and outer diameter surfaces of the annular member, wherein the method comprises after the tempering, polishing inner and outer diameter surfaces of the bearing ring intermediate member, characterized by after the quenching, rapidly cooling the annular member by spraying a cleaning liquid onto the annular member such that the annular member has a surface temperature in a range of 10 °C to 50 °C to form a bearing ring intermediate member, wherein the cleaning liquid is obtained by adding a surfactant to water. cutting out an annular member from a material; forming a surface-hardened layer on the annular member, quenching and tempering the annular member; and polishing inner and outer diameter surfaces of the annular member,
A musical instrument configured to receive strings and a bridge , the instrument comprising: a back separated from a top by a rib structure to define an interior of the instrument; and a soundpost within the interior and spanning between an inner surface of the back and an inner surface of the top, wherein: the instrument is configured to receive the bridge positioned between the strings and an outer surface of the top to support the strings over the top, CHARACTERISED IN THAT : the top and back are inherently flat; and when tension is applied in the strings such that the bridge applies force to the top and the soundpost applies force to the back , the top acquires a concave shape and the back acquires a convex shape. a back separated from a top by a rib structure to define an interior of the instrument; and a soundpost within the interior and spanning between an inner surface of the back and an inner surface of the top, wherein: the instrument is configured to receive the bridge positioned between the strings and an outer surface of the top to support the strings over the top, CHARACTERISED IN THAT : the top and back are inherently flat; and when tension is applied in the strings such that the bridge applies force to the top and the soundpost applies force to the back , the top acquires a concave shape and the back acquires a convex shape. the top and back are inherently flat; and when tension is applied in the strings such that the bridge applies force to the top and the soundpost applies force to the back , the top acquires a concave shape and the back acquires a convex shape.
An electric vane pump comprising: a first shell having a substantially planar first pump surface ; a second shell coupled to the first shell and having a substantially planar second pump surface spaced apart from and extending substantially parallel to the first pump surface ; a non-rotatable center vane support ; a rotor ; a plurality of radially moveable vanes fixed for rotation with the rotor , each vane being positioned between the first and second pump surfaces and having an end slidably engaging the center vane support ; a shaft including spaced apart shoulders engaging each of the first and second shells to define a predetermined spacing between the first and second pump surfaces ; an electric motor stator positioned between the first and second shells ; and a plurality of permanent magnets fixed for rotation with the rotor , the magnets being positioned proximate the stator. a first shell having a substantially planar first pump surface ; a second shell coupled to the first shell and having a substantially planar second pump surface spaced apart from and extending substantially parallel to the first pump surface ; a non-rotatable center vane support ; a rotor ; a plurality of radially moveable vanes fixed for rotation with the rotor , each vane being positioned between the first and second pump surfaces and having an end slidably engaging the center vane support ; a shaft including spaced apart shoulders engaging each of the first and second shells to define a predetermined spacing between the first and second pump surfaces ; an electric motor stator positioned between the first and second shells ; and a plurality of permanent magnets fixed for rotation with the rotor , the magnets being positioned proximate the stator.
A polyol premix, comprising: - at least one hydrohaloolefin blowing agent; - a polyol; and - a catalyst system comprising 2,2'-dimorpholinodiethyl ether, N,N-dimethylcyclohexylamine, and a hydroxyl-containing compound selected from a diol, an alkanolamine, and combinations thereof. - at least one hydrohaloolefin blowing agent; - a polyol; and - a catalyst system comprising 2,2'-dimorpholinodiethyl ether, N,N-dimethylcyclohexylamine, and a hydroxyl-containing compound selected from a diol, an alkanolamine, and combinations thereof.
An optical device for the in-vivo determination of a concentration of an analyte in blood comprising: - an optical interface for optical coupling to a sensed region of the body/ such as a finger or the wrist; - a light source arranged for transmitting UV, visible or infrared light to the sensed region - an optical collection system receiving a scattered light from the sense region; - an optical detector, generating a time-variable signal influenced by the concentration of the analyte; - a logic circuit, arranged to determine the concentration of the analyte in blood in the sense region based on the time-variable signals; characterized in that the optical detector comprises a CMOS integrated circuit with an array of photosensitive pixels, and a circuit for the simultaneous reading of an average illumination value from the pixels or part of the pixels. - an optical interface for optical coupling to a sensed region of the body/ such as a finger or the wrist; - a light source arranged for transmitting UV, visible or infrared light to the sensed region - an optical collection system receiving a scattered light from the sense region; - an optical detector, generating a time-variable signal influenced by the concentration of the analyte; - a logic circuit, arranged to determine the concentration of the analyte in blood in the sense region based on the time-variable signals;
Multi chamber syringe unit (1; 10; 18; 19) comprising a body (2; 20; 28; 29) with a distal end side (23; 230), a proximal end side (22; 220) opposite to the distal end side (23; 230), an interior limited by a side wall (21; 210; 218; 219) between the distal end side (23; 230) and the proximal end side (22; 220) and a longitudinal axis (27; 270) centrally extending from the distal end side (23; 230) to the proximal end side (22; 220) through the body (2; 20; 28; 29); a separating element (3; 30) arranged in the interior of the body (2; 20; 28; 29), wherein the separating element (3; 30) forms a distal chamber (24; 240) in the interior of the body (2; 20; 28; 29) between the distal end side (23; 230) and the separating element (3; 30) and a proximal chamber (25; 250) in the interior of the body (2; 20; 28; 29) between the proximal end side (22; 220) and the separating element (3; 30); and a bypass arrangement (26; 260; 268; 269) provided in the body (2; 20; 28; 29), wherein the bypass arrangement (26; 260; 268; 269) is a section of the body (2; 20; 28; 29) in which the interior has a constant noncircular cross section (261; 2610; 2618; 2619) orthogonal to the longitudinal axis (27; 270) characterized in that the interior in the section of the body (2; 20; 28; 29) being the bypass arrangement (26; 260; 268; 269) has a polygonal-shaped cross section (261; 2610; 2618; 2619) orthogonal to the longitudinal axis (27; 270). a body (2; 20; 28; 29) with a distal end side (23; 230), a proximal end side (22; 220) opposite to the distal end side (23; 230), an interior limited by a side wall (21; 210; 218; 219) between the distal end side (23; 230) and the proximal end side (22; 220) and a longitudinal axis (27; 270) centrally extending from the distal end side (23; 230) to the proximal end side (22; 220) through the body (2; 20; 28; 29); a separating element (3; 30) arranged in the interior of the body (2; 20; 28; 29), wherein the separating element (3; 30) forms a distal chamber (24; 240) in the interior of the body (2; 20; 28; 29) between the distal end side (23; 230) and the separating element (3; 30) and a proximal chamber (25; 250) in the interior of the body (2; 20; 28; 29) between the proximal end side (22; 220) and the separating element (3; 30); and a bypass arrangement (26; 260; 268; 269) provided in the body (2; 20; 28; 29), wherein the bypass arrangement (26; 260; 268; 269) is a section of the body (2; 20; 28; 29) in which the interior has a constant noncircular cross section (261; 2610; 2618; 2619) orthogonal to the longitudinal axis (27; 270) characterized in that the interior in the section of the body (2; 20; 28; 29) being the bypass arrangement (26; 260; 268; 269) has a polygonal-shaped cross section (261; 2610; 2618; 2619) orthogonal to the longitudinal axis (27; 270).
Hybrid no-frost refrigerator comprising a sequential refrigeration circuit having a compressor , a condenser , a valve and at least two evaporators downstream said valve configured to direct refrigerant flow to any of the evaporators , a refrigeration compartment (RC) and a freezer compartment (FC), wherein one of the at least two evaporators cools the freezer compartment (FC) and the other of the at least two evaporators cools the refrigeration compartment (RC), the hybrid no-frost refrigerator further comprising an auxiliary condenser in series with the condenser and a second valve configured to divert refrigerant flow downstream the compressor towards the auxiliary condenser , the auxiliary condenser being in heat exchange relationship with the evaporator of the freezer compartment for defrosting thereof, wherein only the evaporator of the freezer compartment is a no-frost evaporator.
A method for producing a port, the port comprising: a sealing plug , through which a hollow needle can be pierced, a part to be sealed of a port body , wherein the port body includes: a part to be sealed that has a tubular shape with a first end and a second end opposite to the first end in a center axis direction thereof; a connection part that has a tubular shape, and is continuous with the first end of the part to be sealed; and a part to be fitted that is formed in any one of an inner peripheral surface of the part to be sealed, an outer peripheral surface of the part to be sealed, and the second end of the part to be sealed, the method characterized by comprising: sealingly inserting the sealing plug , wherein the sealing plug has a first surface located on a side close to a pulling-out preventing member and a second surface located opposite to the first surface, and has an extension that extends toward a side opposite to the side close to the pulling-out preventing member from the center portion of the second surface of the sealing plug , and wherein an outer peripheral surface of the extension bulges outward over the entire periphery in a circumferential direction; fitting a fitting part of the pulling-out prevention member into the part to be fitted, wherein the pulling-out prevention member includes: a body part that has a first surface and a second surface opposite to the first surface, and the fitting part that is continuous with the body part , to thereby engage the part to be fitted with the fitting part so as to be able to transmit a force which is directed in the center axis of the part to be sealed; and thereby laying the body part on the sealing plug . sealingly inserting the sealing plug , wherein the sealing plug has a first surface located on a side close to a pulling-out preventing member and a second surface located opposite to the first surface, and has an extension that extends toward a side opposite to the side close to the pulling-out preventing member from the center portion of the second surface of the sealing plug , and wherein an outer peripheral surface of the extension bulges outward over the entire periphery in a circumferential direction; fitting a fitting part of the pulling-out prevention member into the part to be fitted, wherein the pulling-out prevention member includes: a body part that has a first surface and a second surface opposite to the first surface, and the fitting part that is continuous with the body part , to thereby engage the part to be fitted with the fitting part so as to be able to transmit a force which is directed in the center axis of the part to be sealed; and thereby laying the body part on the sealing plug .
A matrix multiply unit implemented as a systolic array of cells , each cell of the array of cells comprising: a weight matrix register configured to receive a weight input from either a transposed or a non-transposed weight shift register; a transposed weight shift register configured to receive a weight input from a horizontal direction to be stored in the weight matrix register ; a non-transposed weight shift register configured to receive a weight input from a vertical direction to be stored in the weight matrix register ; and a multiply unit that is coupled to the weight matrix register and configured to multiply the weight input of the weight matrix register with a vector data input in order to obtain a multiplication result. a weight matrix register configured to receive a weight input from either a transposed or a non-transposed weight shift register; a transposed weight shift register configured to receive a weight input from a horizontal direction to be stored in the weight matrix register ; a non-transposed weight shift register configured to receive a weight input from a vertical direction to be stored in the weight matrix register ; and a multiply unit that is coupled to the weight matrix register and configured to multiply the weight input of the weight matrix register with a vector data input in order to obtain a multiplication result.
A motor feedback system for controlling an electric motor , comprising a motor temperature sensor of a specific sensor type (Type-I) for detecting a first resistance value (R1) corresponding to a motor temperature value (T1) according to a resistance-temperature characteristic (K1) of the specific sensor type (Type-I), - wherein the motor feedback system comprises an encoder and a motor controller , the encoder detecting a rotation of a motor shaft of the motor , characterized in that the encoder comprises a programmable memory unit with a stored processing program for processing the first resistance value (R1), - wherein the processing program determines an output resistance value (AR) from the first resistance value (R1) according to an assignment rule, so that the output resistance value (AR) corresponds to the motor temperature value (T1) according to a resistance-temperature characteristic (KE) of a standardized sensor type (type E), - and wherein the output resistance value (AR) can be communicated to the motor controller for temperature-dependent control of the motor . - wherein the motor feedback system comprises an encoder and a motor controller , the encoder detecting a rotation of a motor shaft of the motor , - wherein the processing program determines an output resistance value (AR) from the first resistance value (R1) according to an assignment rule, so that the output resistance value (AR) corresponds to the motor temperature value (T1) according to a resistance-temperature characteristic (KE) of a standardized sensor type (type E), - and wherein the output resistance value (AR) can be communicated to the motor controller for temperature-dependent control of the motor .