mhurhangee/patent-ind-claim-en huggingface dataset:
A turbo refrigerator comprising: a turbo compressor (2; 33) configured to compress a gas-phase refrigerant (R1; R21; R22; R2); a condenser configured to condense the gas-phase refrigerant compressed by the turbo compressor; and an evaporator configured to evaporate a liquid-phase refrigerant (R3) obtained by the condenser to cool down a cooling target (W1) by evaporation heat of the liquid-phase refrigerant, wherein: the turbo compressor is a two-stage centrifugal type configured to cause the gas-phase refrigerant to flow in a radially (R) outward direction in which a compressor front stage and a compressor rear stage are arranged back-to-back so as to be lined up in the axial direction of the turbo compressor; and the condenser is provided outside the turbo compressor so as to overlap the turbo compressor when viewed from each of an axial direction and radial direction of the turbo compressor, the condenser being provided so as to overlap the compressor rear stage when viewed from each of the axial direction and radial direction of the turbo compressor; characterised in that the compressor rear stage entirely overlaps the condenser when viewed from the axial direction. a turbo compressor (2; 33) configured to compress a gas-phase refrigerant (R1; R21; R22; R2); a condenser configured to condense the gas-phase refrigerant compressed by the turbo compressor; and an evaporator configured to evaporate a liquid-phase refrigerant (R3) obtained by the condenser to cool down a cooling target (W1) by evaporation heat of the liquid-phase refrigerant, wherein: the turbo compressor is a two-stage centrifugal type configured to cause the gas-phase refrigerant to flow in a radially (R) outward direction in which a compressor front stage and a compressor rear stage are arranged back-to-back so as to be lined up in the axial direction of the turbo compressor; and the condenser is provided outside the turbo compressor so as to overlap the turbo compressor when viewed from each of an axial direction and radial direction of the turbo compressor, the condenser being provided so as to overlap the compressor rear stage when viewed from each of the axial direction and radial direction of the turbo compressor; the turbo compressor is a two-stage centrifugal type configured to cause the gas-phase refrigerant to flow in a radially (R) outward direction in which a compressor front stage and a compressor rear stage are arranged back-to-back so as to be lined up in the axial direction of the turbo compressor; and the condenser is provided outside the turbo compressor so as to overlap the turbo compressor when viewed from each of an axial direction and radial direction of the turbo compressor, the condenser being provided so as to overlap the compressor rear stage when viewed from each of the axial direction and radial direction of the turbo compressor; characterised in that the compressor rear stage entirely overlaps the condenser when viewed from the axial direction.
A turret for a laser machine and/or a measuring machine suitable for mounting at least one optical device and for rotating it into a correspondence with a workpiece to be processed and/or measured, said turret comprising: - at least one turret body supported by the machine; - at least one rotating drum supported by said turret body and adapted to support at least two devices chosen from optical, gripping, processing, measuring or vision devices; - a laser scanner mounted, in whole or in part, inside the rotating drum of the above-mentioned turret; - said laser scanner being able to use a laser beam, the above-mentioned laser beam having a reflection axis and being generated by a laser generator external to the above-mentioned turret ; wherein - the above-mentioned rotating drum is mounted rotating around said turret body so as to rotate to bring each device alternatively in alignment or in correspondence with the above-mentioned axis of reflection of the laser beam coming from the above-mentioned laser scanner. - at least one turret body supported by the machine; - at least one rotating drum supported by said turret body and adapted to support at least two devices chosen from optical, gripping, processing, measuring or vision devices; - a laser scanner mounted, in whole or in part, inside the rotating drum of the above-mentioned turret; - said laser scanner being able to use a laser beam, the above-mentioned laser beam having a reflection axis and being generated by a laser generator external to the above-mentioned turret ; wherein - the above-mentioned rotating drum is mounted rotating around said turret body so as to rotate to bring each device alternatively in alignment or in correspondence with the above-mentioned axis of reflection of the laser beam coming from the above-mentioned laser scanner.
An agricultural plough arrangement comprising: an agricultural work vehicle ; a plough implement connected to the agricultural work vehicle and comprising at least one ground-engaging tool; at least one actuator mechanism that is configured to move the at least one ground-engaging tool laterally with respect to the agricultural work vehicle ; and a control unit that is configured to: receive field data indicative of conditions of a field across which the agricultural plough arrangement is being moved; and automatically determine an actuator control signal for the actuator mechanism based on the field data, wherein the actuator control signal is for moving the at least one ground-engaging tool laterally with respect to the agricultural work vehicle on the basis of the field data received wherein the field data comprises ground contour data associated with current or previous ground contours of the field across which the plough implement is being moved characterised in that the ground contour data are averaged over the width of the plough implement for lateral contour data or averaged over the length of the plough implement for longitudinal contour data. an agricultural work vehicle ; a plough implement connected to the agricultural work vehicle and comprising at least one ground-engaging tool; at least one actuator mechanism that is configured to move the at least one ground-engaging tool laterally with respect to the agricultural work vehicle ; and a control unit that is configured to: receive field data indicative of conditions of a field across which the agricultural plough arrangement is being moved; and automatically determine an actuator control signal for the actuator mechanism based on the field data, wherein the actuator control signal is for moving the at least one ground-engaging tool laterally with respect to the agricultural work vehicle on the basis of the field data received wherein the field data comprises ground contour data associated with current or previous ground contours of the field across which the plough implement is being moved characterised in that the ground contour data are averaged over the width of the plough implement for lateral contour data or averaged over the length of the plough implement for longitudinal contour data. receive field data indicative of conditions of a field across which the agricultural plough arrangement is being moved; and automatically determine an actuator control signal for the actuator mechanism based on the field data, wherein the actuator control signal is for moving the at least one ground-engaging tool laterally with respect to the agricultural work vehicle on the basis of the field data received wherein the field data comprises ground contour data associated with current or previous ground contours of the field across which the plough implement is being moved characterised in that the ground contour data are averaged over the width of the plough implement for lateral contour data or averaged over the length of the plough implement for longitudinal contour data.
A power conversion device comprising: a power converter including an arm configured with a plurality of unit converters connected in series; and a control device configured to control the power converter, each unit converter including a main circuit including a switching element (Q1, Q2, Q3, Q4) and a direct-current capacitor (C1) and configured to output a voltage pulse at its output terminals according to the voltage of the direct-current capacitor by turning on/off of the switching element (Q1, Q2, Q3, Q4), a control circuit configured to transmit a voltage detected value of the direct-current capacitor to the control device and to control on/off of the switching element (Q1, Q2, Q3, Q4) in accordance with a control signal received from the control device, and a switch (SW) configured to turn on in response to an on command from the control circuit to short-circuit the output terminals of the main circuit, the control device being configured to compare a plurality of the voltage detected values received from the unit converters with a first threshold voltage and, when at least one of the plurality of voltage detected values exceeds the first threshold voltage, transmit the control signal for fixing the switching element (Q1, Q2, Q3, Q4) to an off state to the control circuit of each of the unit converters, characterized in that : in each of the unit converters, the control circuit being configured to compare its own voltage detected value with a second threshold voltage higher than the first threshold voltage and, when the voltage detected value exceeds the second threshold voltage, the control circuit autonomously being configured to fix the switching element (Q1, Q2, Q3, Q4) in its own main circuit to an off state and to turn on the switch (SW), irrespective of the control signal. a power converter including an arm configured with a plurality of unit converters connected in series; and a control device configured to control the power converter, each unit converter including a main circuit including a switching element (Q1, Q2, Q3, Q4) and a direct-current capacitor (C1) and configured to output a voltage pulse at its output terminals according to the voltage of the direct-current capacitor by turning on/off of the switching element (Q1, Q2, Q3, Q4), a control circuit configured to transmit a voltage detected value of the direct-current capacitor to the control device and to control on/off of the switching element (Q1, Q2, Q3, Q4) in accordance with a control signal received from the control device, and a switch (SW) configured to turn on in response to an on command from the control circuit to short-circuit the output terminals of the main circuit, the control device being configured to compare a plurality of the voltage detected values received from the unit converters with a first threshold voltage and, when at least one of the plurality of voltage detected values exceeds the first threshold voltage, transmit the control signal for fixing the switching element (Q1, Q2, Q3, Q4) to an off state to the control circuit of each of the unit converters,
A communications apparatus, the apparatus comprising means for receiving from a server a request to perform sensing measurements; means for receiving from one or more wireless terminal devices information on the amount of resources required for uplink data transmission; means for allocating transmission resources to the one or more wireless terminal devices, where the allocated resources are larger than needed for data transmission of the one or more wireless terminal, the amount of transmission resources not needed for data transmission being selected based on the request received from the server; means for transmitting information about the allocated resources to the one or more wireless terminal devices; means for receiving transmission from one or more wireless terminal devices on the allocated resources, the transmission comprising an amount of known symbols in addition to data, said known symbols filling the allocated resources not used for transmission of data; means for estimating channel state information utilizing the known symbols; and means for transmitting channel state information to the server. means for receiving from a server a request to perform sensing measurements; means for receiving from one or more wireless terminal devices information on the amount of resources required for uplink data transmission; means for allocating transmission resources to the one or more wireless terminal devices, where the allocated resources are larger than needed for data transmission of the one or more wireless terminal, the amount of transmission resources not needed for data transmission being selected based on the request received from the server; means for transmitting information about the allocated resources to the one or more wireless terminal devices; means for receiving transmission from one or more wireless terminal devices on the allocated resources, the transmission comprising an amount of known symbols in addition to data, said known symbols filling the allocated resources not used for transmission of data; means for estimating channel state information utilizing the known symbols; and means for transmitting channel state information to the server.
Head part for a cartridge provided for interacting with a dispensing device, the head part having a first receiving region for interacting with a first container and a second receiving region for interacting with a second container , the first receiving region being connected to a first channel and the second receiving region being connected to a second channel which is separated from the first channel at least in regions, a control device being arranged in at least one channel for controlling a volume flow of a composition guided through the corresponding channel (15 or 16), characterized in that the control device has a spring device .
A storage device comprising: a base ; and a number of side panels selectively coupled to the base , wherein each of the side panels comprise a protrusion , wherein the base comprises a number of voids defined therein, and wherein the protrusions, once inserted into the voids, restrict movement of the side panels relative to the base in at least two coordinate directions, wherein each side panel comprises a securing device to secure the side panels to an adjacent one of the side panels, wherein each securing device comprises: a pin embedded in a first side panel ; a groove defined in the pin; and a spring-loaded catch embedded in a second side panel adjacent the first side panel, the spring-loaded catch being spring biased to engage with the groove of the pin when the pin enters a first aperture defined in the second side panel, characterised in that the spring-loaded catch is embedded in a recess in the second side panel, wherein the recess comprises a second aperture such that the recess opens to an outside surface of the second side panel. a base ; and a number of side panels selectively coupled to the base , wherein each of the side panels comprise a protrusion , wherein the base comprises a number of voids defined therein, and wherein the protrusions, once inserted into the voids, restrict movement of the side panels relative to the base in at least two coordinate directions, wherein each side panel comprises a securing device to secure the side panels to an adjacent one of the side panels, wherein each securing device comprises: a pin embedded in a first side panel ; a groove defined in the pin; and a spring-loaded catch embedded in a second side panel adjacent the first side panel, the spring-loaded catch being spring biased to engage with the groove of the pin when the pin enters a first aperture defined in the second side panel, characterised in that the spring-loaded catch is embedded in a recess in the second side panel, wherein the recess comprises a second aperture such that the recess opens to an outside surface of the second side panel. a pin embedded in a first side panel ; a groove defined in the pin; and a spring-loaded catch embedded in a second side panel adjacent the first side panel, the spring-loaded catch being spring biased to engage with the groove of the pin when the pin enters a first aperture defined in the second side panel, characterised in that the spring-loaded catch is embedded in a recess in the second side panel, wherein the recess comprises a second aperture such that the recess opens to an outside surface of the second side panel.
Tyre for a passenger vehicle, comprising a tread intended to come into contact with the ground via a tread surface and having an axial width LT, the tread comprising two axially exterior portions each having an axial width (LS1, LS2) at most equal to 0.3 times the axial width LT, comprising at least one rubbery material M intended to come into contact with the ground during running, at least one axially exterior portion comprising axially exterior cuts , an axially exterior cut forming a space opening onto the tread surface and being delimited by at least two lateral faces referred to as main lateral faces connected by a bottom face , the axially exterior cuts having a depth D defined by the maximum radial distance between the tread surface and the bottom face , the tyre further comprising a crown reinforcement radially on the inside of the tread , the crown reinforcement comprising a working reinforcement and a hoop reinforcement , the working reinforcement being made up of 2 working layers each comprising reinforcing elements which are coated in an elastomeric material, mutually parallel and respectively form, with a circumferential direction (XX') of the tyre, an oriented angle (A1, A2) at least equal to 20° and at most equal to 50°, in terms of absolute value, and of opposite sign from one layer to the next, the said reinforcing elements in each ply being made up of individual metal threads or monofilaments having a cross section the smallest dimension of which is at least equal to 0.20 mm and at most equal to 0.5 mm, and a breaking strength Rm, the density of reinforcing elements in each working layer being at least equal to 100 threads per dm and at most equal to 200 threads per dm, the hoop reinforcement comprising at least one hooping layer comprising reinforcing elements which are mutually parallel and form, with the circumferential direction (XX') of the tyre, an angle B at most equal to 10°, in terms of absolute value, the breaking strength R c of each working layer being at least equal to 30 000 N/dm, Rc being defined by: Rc= Rm ∗ S ∗ d, where Rm is the tensile breaking strength of the monofilaments in MPa, S is the cross-sectional area of the monofilaments in mm 2 and d is the density of monofilaments in the working layer considered, in number of monofilaments per dm, the measurement of breaking strength, denoted Rm being taken under tension in accordance with ISO standard 6892 of 1984, characterized in that in at least one of the two axially exterior portions (LS1, LS2), the at least one rubbery material M intended to be in contact with the ground during running, has a Shore hardness at least equal to 48 and at most equal to 60, the shore hardness being measured in accordance with standard ASTM 2240 or DIN 53505.
Network component for a network, which comprises a plurality of similar network components , and the network component is part of a building installation, in particular a lighting device, wherein the network component comprises a supply interface for an electrical supply line , which carries a voltage supply for the network component and a data signal, and a power line module , a control device , at least one operating device of the building installation, and a communication interface , wherein the power line module is configured to couple the data signal transmitted via the supply line out and/or in, and the control device is connected to the at least one operating device and is configured to control the at least one operating device , and the power line module is connected to the communication interface in order to transmit the data signal to and/or receive the data signal from the communication interface ; and the communication interface is configured to provide a connection for a physical transmission medium , characterised in that the network component further contains at least one sensor integrated in the network component, which can detect surrounding or environmental conditions, wherein the sensor is connected in the connection between the power line module and the communication interface , and the control device is configured to process the fed-in sensor values and to use them to control the operating device . wherein the network component comprises a supply interface for an electrical supply line , which carries a voltage supply for the network component and a data signal, and a power line module , a control device , at least one operating device of the building installation, and a communication interface , wherein the power line module is configured to couple the data signal transmitted via the supply line out and/or in, and the control device is connected to the at least one operating device and is configured to control the at least one operating device , and the power line module is connected to the communication interface in order to transmit the data signal to and/or receive the data signal from the communication interface ; and the communication interface is configured to provide a connection for a physical transmission medium , characterised in that the network component further contains at least one sensor integrated in the network component, which can detect surrounding or environmental conditions, wherein the sensor is connected in the connection between the power line module and the communication interface , and the control device is configured to process the fed-in sensor values and to use them to control the operating device .
A washing machine including a detergent supply unit , the detergent supply unit comprising: a detergent dispenser mounted to an accommodation portion in an upper portion of a body of the washing machine and configured to accommodate detergents; a detergent mixing tub configured to mix some of the detergent with washing water; a pump coupled to the detergent dispenser and configured to supply some of the detergent from the detergent dispenser to the detergent mixing tub ; and a driver coupled to a door of the washing machine and configured to transmit a driving force driving the pump , wherein the pump comprises a pump handle configured to perform a reciprocating motion by the driving force, wherein a detergent discharge port configured to discharge some of the detergent into the detergent mixing tub is provided at one end of the pump handle , characterised in that the pump is configured to receive the driving force from a motor of the driver positioned above the pump . a detergent dispenser mounted to an accommodation portion in an upper portion of a body of the washing machine and configured to accommodate detergents; a detergent mixing tub configured to mix some of the detergent with washing water; a pump coupled to the detergent dispenser and configured to supply some of the detergent from the detergent dispenser to the detergent mixing tub ; and a driver coupled to a door of the washing machine and configured to transmit a driving force driving the pump , wherein the pump comprises a pump handle configured to perform a reciprocating motion by the driving force, wherein a detergent discharge port configured to discharge some of the detergent into the detergent mixing tub is provided at one end of the pump handle , characterised in that the pump is configured to receive the driving force from a motor of the driver positioned above the pump .