mhurhangee/patent-ind-claim-en huggingface dataset:
A method for the thermal analysis of a sample , comprising: - controlling the temperature of the sample according to a temperature program, in the course of which a temperature (T) of the sample is changed, - measuring the temperature (T) of the sample in the course of the temperature program, - measuring at least one physical property of the sample , which differs from the temperature (T) of the sample , in the course of the temperature program, characterized in that the measuring of the temperature (T) of the sample comprises: - irradiating a first surface region of the sample with an electromagnetic excitation beam, detecting an intensity of a thermal radiation emanating from a second surface region of the sample as a result of the irradiation, - determining a temperature conductivity (α) of the sample by evaluating the detected intensity of the thermal radiation, - determining the temperature of the sample by means of the determined temperature conductivity (α) by using data indicating the temperature-dependent course of the temperature conductivity (α) of the sample . - controlling the temperature of the sample according to a temperature program, in the course of which a temperature (T) of the sample is changed, - measuring the temperature (T) of the sample in the course of the temperature program, - measuring at least one physical property of the sample , which differs from the temperature (T) of the sample , in the course of the temperature program, - irradiating a first surface region of the sample with an electromagnetic excitation beam, detecting an intensity of a thermal radiation emanating from a second surface region of the sample as a result of the irradiation, - determining a temperature conductivity (α) of the sample by evaluating the detected intensity of the thermal radiation, - determining the temperature of the sample by means of the determined temperature conductivity (α) by using data indicating the temperature-dependent course of the temperature conductivity (α) of the sample .
A control method, characterized by measuring a battery voltage inputted to a cascade connection of a boost-type switched-mode power supply and a buck-type switched-mode power supply providing a supply voltage to a radio frequency power amplifier; comparing the measured battery voltage to a threshold corresponding an input supply voltage which is needed for the buck-type switched-mode power supply; bypassing the boost-type switched-mode power supply and coupling the battery voltage directly to the buck-type switched-mode power supply, if the measured battery voltage exceeds the needed input supply voltage; controlling the boost-type switched-mode power supply to raise the battery voltage to at least the needed input supply voltage, if the measured battery voltage is below the needed input supply voltage; controlling the buck-type switched-mode power supply to operate in one of at least two section modes according to one or more of: a mode of operation of the power amplifier, a frequency band of the power amplifier, a modulation method, and a transmission power of the power amplifier.
A computer-implemented method comprising: (A) forming a first trust relationship between a first device in a first set of first one or more trusted devices associated with a first user and a second device in a second set of second one or more trusted devices associated with a second user; (B) based on (i) said first trust relationship, and (ii) said second set associated with said second user, forming a second trust relationship between each device in said first set and each device in said second set; and (C) at least one device in said first set communicating with one or more devices in said second set, said communicating based on said second trust relationship; wherein users (102, 102-A, ..., 102-k) use one or more of their devices to communicate via a backend system ; wherein the first set of said first one or more trusted devices associated with the first user is maintained as a first journal in the backend system , and wherein the second set of said second one or more trusted devices associated with the second user is maintained as a second journal in the backend system , and wherein, for said communicating in (C), said at least one device in said first set uses the second journal; wherein said at least one device in said first set uses information in the second journal to determine which devices of said second user to trust; wherein at least one of the first set and the second set comprises more than one trusted device . (A) forming a first trust relationship between a first device in a first set of first one or more trusted devices associated with a first user and a second device in a second set of second one or more trusted devices associated with a second user; (B) based on (i) said first trust relationship, and (ii) said second set associated with said second user, forming a second trust relationship between each device in said first set and each device in said second set; and (C) at least one device in said first set communicating with one or more devices in said second set, said communicating based on said second trust relationship; wherein users (102, 102-A, ..., 102-k) use one or more of their devices to communicate via a backend system ; wherein the first set of said first one or more trusted devices associated with the first user is maintained as a first journal in the backend system , and wherein the second set of said second one or more trusted devices associated with the second user is maintained as a second journal in the backend system , and wherein, for said communicating in (C), said at least one device in said first set uses the second journal; wherein said at least one device in said first set uses information in the second journal to determine which devices of said second user to trust; wherein at least one of the first set and the second set comprises more than one trusted device .
A threaded member tightening tool (1; 101) comprising: a tool body (10; 110) having an engaging element fitting unit (18; 118) to which a threaded member engaging element (12; 112) is to be fitted, and an electric motor rotationally driving the engaging element fitting unit (18; 118); and a forward-reverse rotation switching unit (14; 114) for switching a direction of rotation of the engaging element fitting unit (18; 118) by the electric motor between a forward direction and a reverse direction; characterized by a computing unit switchable between a counting mode in which the computing unit counts a number of threaded members tightened with the tool body and holds the counted number as a count value and a count return mode for returning the count value to a one-preceding count value; and a mode switching unit (36; 136) for switching the computing unit from the counting mode to the count return mode; wherein the computing unit is configured to return the count value to a one-preceding count value based on a fact that the engaging element fitting unit (18; 118) has been driven in the reverse direction when the computing unit has been switched to the count return mode. a tool body (10; 110) having an engaging element fitting unit (18; 118) to which a threaded member engaging element (12; 112) is to be fitted, and an electric motor rotationally driving the engaging element fitting unit (18; 118); and a forward-reverse rotation switching unit (14; 114) for switching a direction of rotation of the engaging element fitting unit (18; 118) by the electric motor between a forward direction and a reverse direction; characterized by a computing unit switchable between a counting mode in which the computing unit counts a number of threaded members tightened with the tool body and holds the counted number as a count value and a count return mode for returning the count value to a one-preceding count value; and a mode switching unit (36; 136) for switching the computing unit from the counting mode to the count return mode; wherein the computing unit is configured to return the count value to a one-preceding count value based on a fact that the engaging element fitting unit (18; 118) has been driven in the reverse direction when the computing unit has been switched to the count return mode.
An antibody-drug conjugate comprising: (a) an antibody, or antigen binding fragment thereof, that binds to extra domain B of fibronectin, wherein the antibody, or antigen binding fragment, comprises a heavy chain variable region comprising three CDRs comprising SEQ ID NOs: 3, 5 and 7, and a light chain variable region comprising three CDRs comprising SEQ ID NOs: 12, 13 and 14, wherein the heavy chain comprises an engineered cysteine residue at position 290 (K290C), according to the numbering of the EU index of Kabat, and wherein the light chain comprises an engineered cysteine residue at position 183 (κK183C), according to the numbering of Kabat, (b) a linker, and (c) a drug. (a) an antibody, or antigen binding fragment thereof, that binds to extra domain B of fibronectin, wherein the antibody, or antigen binding fragment, comprises a heavy chain variable region comprising three CDRs comprising SEQ ID NOs: 3, 5 and 7, and a light chain variable region comprising three CDRs comprising SEQ ID NOs: 12, 13 and 14, wherein the heavy chain comprises an engineered cysteine residue at position 290 (K290C), according to the numbering of the EU index of Kabat, and wherein the light chain comprises an engineered cysteine residue at position 183 (κK183C), according to the numbering of Kabat, (b) a linker, and (c) a drug.
A sensor head of a sensor for measuring a position of a measurement object , the sensor head comprising: a lens configured to emit light incident from a light source side along an optical axis (AX1) and cause chromatic aberration in the light; an objective lens arranged on a measurement object side with respect to the lens , and configured to collect and emit light incident from the lens side to the measurement object side and emit light incident from the measurement object side to the lens side; and a case having an accommodation space inside and accommodating at least the lens and the objective lens in the accommodation space, wherein the case comprises a first case section having the lens inside, a second case section having the objective lens inside, and a third case section connecting between the first case section and the second case section , a mirror member configured to bend the light incident from the lens side toward an objective lens side is arranged inside the third case section , and the sensor head being characterized in that : a tube being hollow and communicating through holes respectively formed in the mirror member and the objective lens is provided. a lens configured to emit light incident from a light source side along an optical axis (AX1) and cause chromatic aberration in the light; an objective lens arranged on a measurement object side with respect to the lens , and configured to collect and emit light incident from the lens side to the measurement object side and emit light incident from the measurement object side to the lens side; and a case having an accommodation space inside and accommodating at least the lens and the objective lens in the accommodation space, wherein the case comprises a first case section having the lens inside, a second case section having the objective lens inside, and a third case section connecting between the first case section and the second case section , a mirror member configured to bend the light incident from the lens side toward an objective lens side is arranged inside the third case section , and the sensor head being characterized in that : a tube being hollow and communicating through holes respectively formed in the mirror member and the objective lens is provided.
A system for independently controlling a relay using bimetal, the system comprising: a bimetal unit configured to be connected with a relay provided in a circuit and shape-transformed by current; and a switching unit configured to apply specific current to the bimetal unit based on a signal output by a micro controller unit (MCU) , wherein when a current value on the circuit is more than a predetermined threshold the micro controller unit is configured to output a first signal, the bimetal unit is configured to be shape-transformed by the specific current applied by the switching unit; characterized in that the bimetal unit is further configured so that the shape-transformation of the bimetal unit causes the connection thereof with the circuit and the application of the current in the circuit to the bimetal unit, thereby causing change of a state of the relay from an on state to an off state. a bimetal unit configured to be connected with a relay provided in a circuit and shape-transformed by current; and a switching unit configured to apply specific current to the bimetal unit based on a signal output by a micro controller unit (MCU) , wherein when a current value on the circuit is more than a predetermined threshold the micro controller unit is configured to output a first signal, the bimetal unit is configured to be shape-transformed by the specific current applied by the switching unit;
Train arrangement comprising at least three carriages (12.1 ... 12.7), which are coupled together to form a common train unit , and a multiplicity of sanitary facilities (20.1 ... 20.7) in at least one of the carriages (12.1 ... 12.7), wherein the entirety of the sanitary facilities (20.1 ... 20.7) may be assigned at least one fresh-water installation (18.1 ... 18.7) and one wastewater system (16.1 ... 16.7), wherein only individual carriages (12.1 ... 12.7) of the train unit have sanitary facilities (20.1 ... 20.7), characterized in that the sanitary facilities (20.1 ... 20.7) are situated, individually or in pairs at both outer ends of a carriage (12.1 ... 12.7), only in every second carriage (12.1 ... 12.7), starting at a first or second carriage (12.1 or 12.2), wherein at least two carriages of the train unit have dedicated drive units, and wherein those carriages of the train unit which have sanitary facilities are free of drive units.
A fixing assembly for a battery module , comprising: an end plate , the end plate being configured to abut against an outer sidewall of the battery module and provided with a limiting member protruding from a surface of the end plate ; a fixing member , the fixing member being configured to connect a plurality of battery modules and abut against the surface of the end plate provided with the limiting member , such that the fixing member , the limiting member , and the end plate cooperatively define a positioning region ; and a first band , the first band being configured to abut against the surface of the end plate provided with the limiting member to bind the battery module , and the first band abutting against the positioning region , such that both the fixing member and the limiting member abut against the first band . an end plate , the end plate being configured to abut against an outer sidewall of the battery module and provided with a limiting member protruding from a surface of the end plate ; a fixing member , the fixing member being configured to connect a plurality of battery modules and abut against the surface of the end plate provided with the limiting member , such that the fixing member , the limiting member , and the end plate cooperatively define a positioning region ; and a first band , the first band being configured to abut against the surface of the end plate provided with the limiting member to bind the battery module , and the first band abutting against the positioning region , such that both the fixing member and the limiting member abut against the first band .
A compressor comprising: a case ; a refrigerant discharge pipe provided on one side of the case for discharging refrigerant compressed; a drive motor provided in the case ; a rotary shaft rotatably coupled to the drive motor ; a compression unit configured to compress the refrigerant and comprising a shaft support portion through which at least a part of the rotary shaft passes; and a discharge cover coupled to the compression unit and configured to guide the refrigerant compressed by the compression unit toward the refrigerant discharge pipe , a first sealing member is provided between the compression unit and the discharge cover wherein the discharge cover comprises an inner sidewall coupled to the shaft support portion , characterized in that the inner wall is disposed to make a surface contact with an inner circumferential surface of the shaft support portion at a radially inner side of the shaft support portion ; the shaft support portion comprises a first sealing groove formed to be concave radially outward; the inner wall comprises a second sealing groove formed to be concave radially inward, wherein the first sealing groove and the second sealing groove are disposed corresponding to each other; and the first sealing member is disposed in a space defined between the second sealing groove of the inner sidewall and the first sealing groove of the shaft support portion . a case ; a refrigerant discharge pipe provided on one side of the case for discharging refrigerant compressed; a drive motor provided in the case ; a rotary shaft rotatably coupled to the drive motor ; a compression unit configured to compress the refrigerant and comprising a shaft support portion through which at least a part of the rotary shaft passes; and a discharge cover coupled to the compression unit and configured to guide the refrigerant compressed by the compression unit toward the refrigerant discharge pipe , a first sealing member is provided between the compression unit and the discharge cover wherein the discharge cover comprises an inner sidewall coupled to the shaft support portion , characterized in that the inner wall is disposed to make a surface contact with an inner circumferential surface of the shaft support portion at a radially inner side of the shaft support portion ; the shaft support portion comprises a first sealing groove formed to be concave radially outward; the inner wall comprises a second sealing groove formed to be concave radially inward, wherein the first sealing groove and the second sealing groove are disposed corresponding to each other; and the first sealing member is disposed in a space defined between the second sealing groove of the inner sidewall and the first sealing groove of the shaft support portion .
A thermoplastic resin composition comprising: (A) an aromatic polyamide resin; (B) an aliphatic polyamide resin; (C) a first chelating agent comprising an amino group and at least one of carboxylic acid and a salt thereof; (D) a second chelating agent comprising an aromatic dicarboxylic acid; and (E) fillers. (A) an aromatic polyamide resin; (B) an aliphatic polyamide resin; (C) a first chelating agent comprising an amino group and at least one of carboxylic acid and a salt thereof; (D) a second chelating agent comprising an aromatic dicarboxylic acid; and (E) fillers.
A data transmission method, wherein the method comprises: receiving (S101), by a cooperation device, to-be-transmitted data sent by a network side device to a cooperation group, wherein the cooperation group comprises the cooperation device and a target device; and sending (S103), by the cooperation device, the to-be-transmitted data to the target device before a first moment, wherein a moment at which the target device feeds back, to the network side device, whether the to-be-transmitted data is correctly received is defined as the first moment, a moment at which the cooperation device sends the to-be-transmitted data to the target device is defined as a second moment, and duration between the second moment and the first moment is greater than or equal to duration required by the target device to receive, process, and check the to-be-transmitted data sent by the cooperation device; and characterized in that a transmission time interval, TTI, used for transmission between the cooperation device and the target device is less than a TTI used for transmission between the target device and the network side device. receiving (S101), by a cooperation device, to-be-transmitted data sent by a network side device to a cooperation group, wherein the cooperation group comprises the cooperation device and a target device; and sending (S103), by the cooperation device, the to-be-transmitted data to the target device before a first moment, wherein a moment at which the target device feeds back, to the network side device, whether the to-be-transmitted data is correctly received is defined as the first moment, a moment at which the cooperation device sends the to-be-transmitted data to the target device is defined as a second moment, and duration between the second moment and the first moment is greater than or equal to duration required by the target device to receive, process, and check the to-be-transmitted data sent by the cooperation device; and characterized in that a transmission time interval, TTI, used for transmission between the cooperation device and the target device is less than a TTI used for transmission between the target device and the network side device.
A print system comprising: a moving body supporting a can body and moving; an upper moving route provided as a linear-shaped moving route and extending in a lateral direction, which the moving body travels when the moving body moves in one direction; a lower moving route provided as a linear-shaped moving route and positioned below the upper moving route and extending in the lateral direction, which the moving body travels when the moving body moves in a direction opposite to the one direction; a first linear moving route formed linearly from the upper side to the lower side and providing a first inspection device at its lateral side; a second linear moving route formed linearly from the lower side to the upper side and providing a second inspection device at its lateral side; and an image forming unit performing image formation onto the can body supported by the moving body , the image formation being performed while the can body supported by the moving body is located on the upper moving route or the lower moving route , wherein, when orientation of the moving body while the moving body is located on the upper moving route and orientation of the moving body while the moving body is located on the lower moving route are compared, the moving body is turned upside down, and wherein the upper moving route , the first linear moving route , the lower moving route , and the second linear moving route are provided on an annular moving route . a moving body supporting a can body and moving; an upper moving route provided as a linear-shaped moving route and extending in a lateral direction, which the moving body travels when the moving body moves in one direction; a lower moving route provided as a linear-shaped moving route and positioned below the upper moving route and extending in the lateral direction, which the moving body travels when the moving body moves in a direction opposite to the one direction; a first linear moving route formed linearly from the upper side to the lower side and providing a first inspection device at its lateral side; a second linear moving route formed linearly from the lower side to the upper side and providing a second inspection device at its lateral side; and an image forming unit performing image formation onto the can body supported by the moving body , the image formation being performed while the can body supported by the moving body is located on the upper moving route or the lower moving route , wherein, when orientation of the moving body while the moving body is located on the upper moving route and orientation of the moving body while the moving body is located on the lower moving route are compared, the moving body is turned upside down, and wherein the upper moving route , the first linear moving route , the lower moving route , and the second linear moving route are provided on an annular moving route .