mhurhangee/ep-ind-claims huggingface dataset:
A binding machine for gardening comprising: a main handle that is configured to draw out a tape from a front end portion thereof; a clincher arm that is rotatably attached to the main handle; and a tape gripping device that is attached to a front end portion of the clincher arm, wherein when the clincher arm rotates in a closing direction to a predetermined position with respect to the main handle, a gripping operation is performed in which the tape gripping device grips an end portion of the tape drawn out from the front end portion of the main handle, when the clincher arm further rotates in the closing direction from the predetermined position with respect to the main handle to be in a closed state, a binding operation is performed in which the tape binds objects to be bound and is then cut, and the gripping operation and the binding operation are performed alternately, to bind the object, characterized in that a movement restricting unit is provided to restrict the rotation of the clincher arm in the closing direction from the predetermined position at the time of the gripping operation. a main handle that is configured to draw out a tape from a front end portion thereof; a clincher arm that is rotatably attached to the main handle; and a tape gripping device that is attached to a front end portion of the clincher arm, wherein when the clincher arm rotates in a closing direction to a predetermined position with respect to the main handle, a gripping operation is performed in which the tape gripping device grips an end portion of the tape drawn out from the front end portion of the main handle, when the clincher arm further rotates in the closing direction from the predetermined position with respect to the main handle to be in a closed state, a binding operation is performed in which the tape binds objects to be bound and is then cut, and the gripping operation and the binding operation are performed alternately, to bind the object, characterized in that a movement restricting unit is provided to restrict the rotation of the clincher arm in the closing direction from the predetermined position at the time of the gripping operation.
Method for producing a removable dental appliance (10; 110) comprising a plurality of components (14, 16, 18, 20; 142, 144, 146) is designed to exert a retaining or changing influence on the position of patient's teeth, on the basis of a predefined design plan for the appliance, wherein the method comprises the steps of: a) creating a three-dimensional digital model of the actual position of the teeth of a jaw, b) providing three-dimensional digital models of retaining elements (24; 124) for at least some of the components of the appliance (10; 110), c) combining the digital data of the three-dimensional models of the retaining elements (24; 24) with the digital data of the three-dimensional digital model of the actual position of the teeth to obtain a common three-dimensional digital overall model (26; 126), d) preparing a three-dimensional real model (30; 130) of the actual position of the teeth based on the three- dimensional digital overall model (26; 126), e) mounting the components (14, 16, 18, 20; 142, 144, 146) of the removable dental appliance (10; 110) on the real model (30; 130) with the aid of the retaining elements (24; 124) formed during the production of the real model (30; 130), f) connecting the components (14, 16, 18, 20; 142, 144, 146) to the removable dental appliance (10; 110), and g) removing the removable dental appliance (10; 110) produced in this manner from the real model. a) creating a three-dimensional digital model of the actual position of the teeth of a jaw, b) providing three-dimensional digital models of retaining elements (24; 124) for at least some of the components of the appliance (10; 110), c) combining the digital data of the three-dimensional models of the retaining elements (24; 24) with the digital data of the three-dimensional digital model of the actual position of the teeth to obtain a common three-dimensional digital overall model (26; 126), d) preparing a three-dimensional real model (30; 130) of the actual position of the teeth based on the three- dimensional digital overall model (26; 126), e) mounting the components (14, 16, 18, 20; 142, 144, 146) of the removable dental appliance (10; 110) on the real model (30; 130) with the aid of the retaining elements (24; 124) formed during the production of the real model (30; 130), f) connecting the components (14, 16, 18, 20; 142, 144, 146) to the removable dental appliance (10; 110), and g) removing the removable dental appliance (10; 110) produced in this manner from the real model.
A dishwasher comprising a body; a heat pump that is disposed inside the body, that provides the heating of the water to be used in the washing step and that has a first heat exchanger drawing heat from the ambient air, a second heat exchanger transferring the heat received from the first heat exchanger to the wash water and a compressor fluidly connected to the first heat exchanger and the second heat exchanger, realizing the refrigerant cycle by compressing and directing the refrigerant leaving the first heat exchanger to the second heat exchanger, and a drip tray that is disposed immediately under the first heat exchanger, wherein the water condensing on the first heat exchanger is collected, a duct wherein the refrigerant is circulated, that extends between the compressor, the first heat exchanger and the second heat exchanger; characterized by a valve that is disposed on the duct and that enables the refrigerant to be directed to the first heat exchanger or the second heat exchanger and a control unit that, by directing the compressed refrigerant leaving the compressor by means of the valve to the first heat exchanger, enables the first heat exchanger to become a heat source and thus providing the evaporation of the water collected in the drip tray.
A cardiac rhythm management device comprising: a pulse generator for generating electrical pulses to be delivered to a heart at a pacing rate; a processor in communication with the pulse generator; one or more sensors for sensing pulmonary function and cardiac function, the one or more sensors in communication with the processor; and the processor configured to determine a rate of change in the pulmonary function and a rate of change in the cardiac function, and calculate a target pacing rate based on an existing pacing rate, the rate of change in the pulmonary function and the rate of change in the cardiac function, wherein the processor is configured to make the target pacing rate faster than the existing pacing rate when the pulmonary function is increasing with time and the cardiac function is increasing with time or stable and to make the target pacing rate less than the existing pacing rate when the pulmonary function is increasing with time and the cardiac function is decreasing with time, wherein the cardiac function comprises stroke volume. a pulse generator for generating electrical pulses to be delivered to a heart at a pacing rate; a processor in communication with the pulse generator; one or more sensors for sensing pulmonary function and cardiac function, the one or more sensors in communication with the processor; and the processor configured to determine a rate of change in the pulmonary function and a rate of change in the cardiac function, and calculate a target pacing rate based on an existing pacing rate, the rate of change in the pulmonary function and the rate of change in the cardiac function, wherein the processor is configured to make the target pacing rate faster than the existing pacing rate when the pulmonary function is increasing with time and the cardiac function is increasing with time or stable and to make the target pacing rate less than the existing pacing rate when the pulmonary function is increasing with time and the cardiac function is decreasing with time, wherein the cardiac function comprises stroke volume.
An air conditioning management apparatus, comprising: measured value acquisition means configured to obtain a measured value of at least one of the state of air conditioning equipment and an air-conditioned state; target value setting means configured to set a target value of the measured value or a degree of energy saving through a network or by an input of a user; equipment control means configured to determine a control method of the air conditioning equipment for realizing energy saving based on the measured value and the target value and to control the air conditioning equipment; adding/changing means for measured value acquisition means configured to add/change an object to be measured and a measurement method of the measured value acquisition means through the network or by an input of the user; and adding/changing means for equipment control means configured to add/change a determination method of an air conditioning equipment control method of the equipment control means, and a method of executing the control of the air conditioning equipment, through the network or by an input of the user. measured value acquisition means configured to obtain a measured value of at least one of the state of air conditioning equipment and an air-conditioned state; target value setting means configured to set a target value of the measured value or a degree of energy saving through a network or by an input of a user; equipment control means configured to determine a control method of the air conditioning equipment for realizing energy saving based on the measured value and the target value and to control the air conditioning equipment; adding/changing means for measured value acquisition means configured to add/change an object to be measured and a measurement method of the measured value acquisition means through the network or by an input of the user; and adding/changing means for equipment control means configured to add/change a determination method of an air conditioning equipment control method of the equipment control means, and a method of executing the control of the air conditioning equipment, through the network or by an input of the user.
Arrangement of a body of a vehicle, notably a motor vehicle, comprising a body structure and a roof panel, the body structure comprising, at the top, a roof side rail formed by a body side and/or a body side reinforcement and/or a body side lining the stacking of which defines a load-transfer path, the body comprising a structural node where the path meets a support for a crossmember, the roof panel being connected to the body via an attachment reinforcement, the reinforcement comprising a structural foam making attachment of the roof panel to the structural node suitable, characterized in that the support has an inverted-U section profile with turned-up edges to form substantially parallel attachment strips, and in that the attachment reinforcement is a bridging piece connecting the attachment strips of the support to the load-transfer path.
A method for controlling uplink power in a carrier aggregation based wireless communication system, comprising, at a user equipment, UE: configuring a first set of uplink subframes, UL SFs, and a second set of UL SFs; and performing a procedure for receiving a downlink control information, DCI, format including a bitmap for indicating transmit power control, TPC, information, wherein when reception timing of the TPC information is associated with one of the first and second sets of UL SFs, the TPC information is used to control transmit power of an uplink channel transmitted in the one of the first and second sets of UL SFs, wherein when the reception timing of the TPC information is associated with none of the first and second sets of UL SFs, the TPC information is not used to control transmit power of any uplink channel transmitted in the first and second sets of UL SFs, and when the reception timing of the TPC information is associated with none of the first and second sets of UL SFs, blind decoding for receiving the DCI format is skipped. configuring a first set of uplink subframes, UL SFs, and a second set of UL SFs; and performing a procedure for receiving a downlink control information, DCI, format including a bitmap for indicating transmit power control, TPC, information, wherein when reception timing of the TPC information is associated with one of the first and second sets of UL SFs, the TPC information is used to control transmit power of an uplink channel transmitted in the one of the first and second sets of UL SFs, wherein when the reception timing of the TPC information is associated with none of the first and second sets of UL SFs, the TPC information is not used to control transmit power of any uplink channel transmitted in the first and second sets of UL SFs, and when the reception timing of the TPC information is associated with none of the first and second sets of UL SFs, blind decoding for receiving the DCI format is skipped.
A switch, comprising: a switching module coupled to a plurality of ports, said switching module adapted to receive and forward a plurality of packets through said ports; and a management unit comprising a processor and an agent executable by said processor, said agent adapted to cause the processor to monitor each packet received by the switching module and determine whether each such packet contains a predetermined fingerprint, and upon determining that a packet contains the predetermined fingerprint, said processor adapted to include additional information in a copy of said fingerprinted packet and forwarded to a predetermined address; wherein said switching module also is adapted to forward said packet containing said predetermined fingerprint, but without said additional information, to an address corresponding to a destination address contained in said packet, characterized in that said predetermined fingerprint comprises a bit sequence that does not alter the behavior of the packet or the way in which a network would route the packet, absent the predetermined fingerprint, from its source location to the destination location. a switching module coupled to a plurality of ports, said switching module adapted to receive and forward a plurality of packets through said ports; and a management unit comprising a processor and an agent executable by said processor, said agent adapted to cause the processor to monitor each packet received by the switching module and determine whether each such packet contains a predetermined fingerprint, and upon determining that a packet contains the predetermined fingerprint, said processor adapted to include additional information in a copy of said fingerprinted packet and forwarded to a predetermined address; wherein said switching module also is adapted to forward said packet containing said predetermined fingerprint, but without said additional information, to an address corresponding to a destination address contained in said packet, characterized in that said predetermined fingerprint comprises a bit sequence that does not alter the behavior of the packet or the way in which a network would route the packet, absent the predetermined fingerprint, from its source location to the destination location.
Treatment device, which is adapted for destructing micro-organisms in a gaseous or liquid medium to be treated, comprising: - a treatment substance having an inner hollow structure and being contained in an enclosure accommodating a flow of the medium through the inner hollow structure, characterized in that - the treatment substance comprises particles being arranged in the enclosure and providing the inner hollow structure, said particles having cutting edges with a blade shape, and - the cutting edges are arranged for dissecting the micro-organisms by a mechanical contact of the micro-organisms with the cutting edges of the hollow structure. - a treatment substance having an inner hollow structure and being contained in an enclosure accommodating a flow of the medium through the inner hollow structure, - the treatment substance comprises particles being arranged in the enclosure and providing the inner hollow structure, said particles having cutting edges with a blade shape, and - the cutting edges are arranged for dissecting the micro-organisms by a mechanical contact of the micro-organisms with the cutting edges of the hollow structure.
A computer-implemented method comprising: receiving an indication to apply a change to a first configuration parameter for a first network device; obtaining a first version of a set of configuration parameters, including the first configuration parameter, prior to application of the change; determining a delta between the first version of the set of configuration parameters and a second version of the set of configuration parameters, the second version representing the set of configuration parameters after the change; determining a status of a connection with a remote version control repository; and based on the status of the connection: storing the delta locally on the first network device; or providing the configuration changes to the remote version control repository. receiving an indication to apply a change to a first configuration parameter for a first network device; obtaining a first version of a set of configuration parameters, including the first configuration parameter, prior to application of the change; determining a delta between the first version of the set of configuration parameters and a second version of the set of configuration parameters, the second version representing the set of configuration parameters after the change; determining a status of a connection with a remote version control repository; and based on the status of the connection: storing the delta locally on the first network device; or providing the configuration changes to the remote version control repository. storing the delta locally on the first network device; or providing the configuration changes to the remote version control repository.
A method performed at a network control node of allocating a set of orthogonal resources to user equipment within a network for transmitting signals to serving network nodes, said method comprising: providing network nodes within said network with one of at least two designations such that at least some network nodes have a same designation and at least some adjacent network nodes have different designations; for said plurality of network nodes of a same designation indicating to said network nodes a subset of said set of orthogonal resources that are available to be allocated by said network node to edge user equipment that are located towards an edge of a cell of radio coverage provided by said network node, resources not allocated to said edge user equipment being available to be allocated by said network node to centre user equipment; wherein each network node of a different designation receives a different subset of resources, no resources from said set of orthogonal resources being within more than one subset and resources allocated to said centre user equipment including resources allocated to edge user equipment by network nodes of a different designation. providing network nodes within said network with one of at least two designations such that at least some network nodes have a same designation and at least some adjacent network nodes have different designations; for said plurality of network nodes of a same designation indicating to said network nodes a subset of said set of orthogonal resources that are available to be allocated by said network node to edge user equipment that are located towards an edge of a cell of radio coverage provided by said network node, resources not allocated to said edge user equipment being available to be allocated by said network node to centre user equipment; wherein each network node of a different designation receives a different subset of resources, no resources from said set of orthogonal resources being within more than one subset and resources allocated to said centre user equipment including resources allocated to edge user equipment by network nodes of a different designation.
A liquid cartridge comprising: a front surface; an upper surface (39,141) facing an upward direction when the liquid cartridge is installed in a liquid consuming apparatus; a liquid outlet portion facing a first direction at the front surface; a circuit board disposed on the upper surface (39,141); and a liquid detection portion for detecting a state of liquid stored in the liquid cartridge; and a locking surface disposed at the upper surface (39,141) and configured to contact a locking portion of a cartridge attaching unit of the liquid consuming apparatus in a second direction opposite to the first direction; wherein the liquid detection portion comprises a light access portion configured to be accessed with light traveling from a first point toward a second point, characterized in that the light access portion is displaced from the circuit board in the second direction, and wherein the locking surface is displaced from the light access portion in the second direction, and an intervening wall is disposed between the circuit board and the light access portion, the intervening wall including a particular surface (81,82) extending in a third direction (55, 56) which intersects the first direction and the upward direction, wherein a dimension of the intervening wall in the first direction is longer than a dimension of the intervening wall in the third direction (55,56). a front surface; an upper surface (39,141) facing an upward direction when the liquid cartridge is installed in a liquid consuming apparatus; a liquid outlet portion facing a first direction at the front surface; a circuit board disposed on the upper surface (39,141); and a liquid detection portion for detecting a state of liquid stored in the liquid cartridge; and a locking surface disposed at the upper surface (39,141) and configured to contact a locking portion of a cartridge attaching unit of the liquid consuming apparatus in a second direction opposite to the first direction; wherein the liquid detection portion comprises a light access portion configured to be accessed with light traveling from a first point toward a second point, characterized in that the light access portion is displaced from the circuit board in the second direction, and wherein the locking surface is displaced from the light access portion in the second direction, and an intervening wall is disposed between the circuit board and the light access portion, the intervening wall including a particular surface (81,82) extending in a third direction (55, 56) which intersects the first direction and the upward direction, wherein a dimension of the intervening wall in the first direction is longer than a dimension of the intervening wall in the third direction (55,56).
Method for implanting single or multiply charged ions into a surface of an object to be treated, said method including the step that consists in directing towards the surface of the object to be treated an ion beam produced by an ion source of the electronic cyclotron resonance ECR type, the method also including the steps consisting in: • producing at least one primary electron beam and directing said primary electron beam so that it passes through the ion beam, and • producing a secondary electron beam by reflection of the primary electron beam onto a target once said primary electron beam has traversed the ion beam, the target being oriented such that the secondary electron beam falls onto the surface of the object to be treated. • producing at least one primary electron beam and directing said primary electron beam so that it passes through the ion beam, and • producing a secondary electron beam by reflection of the primary electron beam onto a target once said primary electron beam has traversed the ion beam, the target being oriented such that the secondary electron beam falls onto the surface of the object to be treated.