mhurhangee/patent-ind-claim-en huggingface dataset:
A multi-part locking system for sliding door systems with at least one slidably suspended sliding door panel having a main locking edge and a secondary locking edge , comprising - a floor locking plate , which can be anchored in a building floor, and - a lock housing , which can be attached to one side of a sliding door panel in the region of its lower edge, - at least one hook lock with at least one locking hook being arranged near the main locking edge in the lock housing , - wherein the floor locking plate comprises a recess for the locking hook and - wherein the locking hook and the recess are designed such that the locking hook can partially engage around the floor locking plate through the recess in the intended mounting state of the multi-part locking system, characterized in - that the lock housing has a length, which corresponds at least to the travel path of the sliding door panel , on which it is to be mounted, preferably to the width of this sliding door panel , and in - that a retaining element is provided, which can be mounted in a fixed manner in the region of the secondary locking edge of the sliding door panel and can partially engage around the lock housing . - a floor locking plate , which can be anchored in a building floor, and - a lock housing , which can be attached to one side of a sliding door panel in the region of its lower edge, - at least one hook lock with at least one locking hook being arranged near the main locking edge in the lock housing , - wherein the floor locking plate comprises a recess for the locking hook and - wherein the locking hook and the recess are designed such that the locking hook can partially engage around the floor locking plate through the recess in the intended mounting state of the multi-part locking system, characterized in - that the lock housing has a length, which corresponds at least to the travel path of the sliding door panel , on which it is to be mounted, preferably to the width of this sliding door panel , and in - that a retaining element is provided, which can be mounted in a fixed manner in the region of the secondary locking edge of the sliding door panel and can partially engage around the lock housing .
A contact terminal comprising a terminal shield , a contact carrier , and at least one contact element for conducting electrical signals of a high-frequency data transmission, wherein the contact carrier retains the at least one contact element in a fixed position within the terminal shield ; the terminal shield comprises a discontinuity that affects the impedance of the at least one contact element ; and the contact carrier and the at least one contact element each possess at least one impedance control feature that is configured to adjust the impedance of the at least one contact element to a predefined desired value according to the frequency of the data transmission characterized in that all the impedance control features are aligned with the discontinuity and each of the impedance control features is an element of the group comprising: - a lateral recess on the contact carrier , - a lateral recess on the at least one contact element , and - at least one gap , which at least partially separates the at least one contact element from direct contact with the contact carrier . the contact carrier retains the at least one contact element in a fixed position within the terminal shield ; the terminal shield comprises a discontinuity that affects the impedance of the at least one contact element ; and the contact carrier and the at least one contact element each possess at least one impedance control feature that is configured to adjust the impedance of the at least one contact element to a predefined desired value according to the frequency of the data transmission characterized in that all the impedance control features are aligned with the discontinuity and each of the impedance control features is an element of the group comprising: - a lateral recess on the contact carrier , - a lateral recess on the at least one contact element , and - a lateral recess on the contact carrier , - a lateral recess on the at least one contact element , and - at least one gap , which at least partially separates the at least one contact element from direct contact with the contact carrier .
A device, having: a machine tool with an eccentrically mounted rotatable mounting plate for receiving a tool ; and a braking device , having a frame fixed to the machine tool ; a leaf spring , a first end thereof being fixed to the frame ; a lever connected to a second end of the spring, an actuator designed to move the lever , wherein movement of the lever tensions the spring and part of the lever is pressed against the mounting plate of the machine tool . a machine tool with an eccentrically mounted rotatable mounting plate for receiving a tool ; and a braking device , having a frame fixed to the machine tool ; a leaf spring , a first end thereof being fixed to the frame ; a lever connected to a second end of the spring, an actuator designed to move the lever , wherein movement of the lever tensions the spring and part of the lever is pressed against the mounting plate of the machine tool .
A near field communication, NFC, controller comprising a load modulation amplitude control unit configured to control a load modulation amplitude of one or more signals transmitted through an NFC antenna, wherein said load modulation amplitude control unit is further configured to change said load modulation amplitude in dependence on a supply voltage.
A separator for an electrochemical device, the separator being interposed between a pair of electrodes and being capable of holding an electrolytic solutions containing an electrolyte, wherein the separator for an electrochemical device consists of only beaten solvent-spun regenerated cellulose fibers, wherein a filament with a fiber diameter of less than 1 μm formed by beating is referred to as a "fibril", and the original fiber with a fiber diameter of 1 μm or more is referred to as a "core", said fibers having a core portion with an average fiber diameter of from 1 to 11 μm, the separator having a thickness of from 5 to 100 μm, a density of from 0.25 to 0.9 g/cm 3 , and a curvature rate of from 1.5 to 15, wherein the curvature rate τ is defined as τ = t ⋅ ε ⋅ d / 5.18 ⋅ 10 − 3 ⋅ L 1 / 2 where L denotes the separator thickness (μm), t denotes the Gurley value (s/100 ml), ε denotes the porosity, and d denotes the pore diameter (μm), and wherein the Gurley value is measured by a method specified in 5 Gurley test method of JIS P 8117 "Paper and board - Determination of air permeance and air resistance (medium range) - Gurley method", and the porosity is calculated from the ratio of the density of a separator to the specific gravity of the material of the separator using the following formula: ε = 1 - (D1/D2), where ε denotes the porosity, D1 denotes the density of the separator, and D2 denotes the specific gravity of the material of the separator, and wherein the separator has a Gurley value in the range from 1.5 to 30.1 s/100ml. where L denotes the separator thickness (μm), t denotes the Gurley value (s/100 ml), ε denotes the porosity, and d denotes the pore diameter (μm), and wherein the Gurley value is measured by a method specified in 5 Gurley test method of JIS P 8117 "Paper and board - Determination of air permeance and air resistance (medium range) - Gurley method", and the porosity is calculated from the ratio of the density of a separator to the specific gravity of the material of the separator using the following formula: ε = 1 - (D1/D2), where ε denotes the porosity, D1 denotes the density of the separator, and D2 denotes the specific gravity of the material of the separator, and wherein the separator has a Gurley value in the range from 1.5 to 30.1 s/100ml.
A sensor implant device comprising: a shunt structure comprising a flow path conduit and a plurality of arms configured to secure the shunt structure to a tissue wall; a netting attached to the shunt structure and at least partially covering a flow path of the flow path conduit; and a sensor device attached to the netting at an attachment point; wherein the netting is configured to become at least partially inverted when the sensor device is passed through the flow path conduit of the shunt structure . a shunt structure comprising a flow path conduit and a plurality of arms configured to secure the shunt structure to a tissue wall; a netting attached to the shunt structure and at least partially covering a flow path of the flow path conduit; and a sensor device attached to the netting at an attachment point; wherein the netting is configured to become at least partially inverted when the sensor device is passed through the flow path conduit of the shunt structure .
A cleaning device for a combine harvester comprising at least one fan , an oscillatingly driven sieve frame which has at least an upper sieve and a lower sieve which are arranged in mutually spaced relationship in the sieve frame, and at least one passage portion which directs an air flow produced by the fan from below inclinedly in the direction of the underside of the upper sieve and the lower sieve, wherein arranged beneath the lower sieve and the upper sieve is at least one respective air guide element which has mutually opposite end faces free from regions tapering to a point and at least one side surface connecting said end faces together, which are of different radii of curvature (R1, R2, R3) in relation to the cross-sectional centre point (M) of the air guide element , wherein the radii of curvature (R1, R3) of the end faces are greater than the radius of curvature (R2) of the at least one side surface , wherein a main axis (HA) of the respective air guide element has an inclination relative to the respective sieve plane of the upper and lower sieves , characterised in that the inclination of the main axis (HA) of the respective air guide element is adjustable.
A fluid reservoir adapted to enclose a fluid therewithin, the fluid reservoir comprising: a reservoir body forming a reservoir volume and a header opening that is fluidly open to the reservoir volume ; a header connected to the reservoir body and disposed to seal the header opening ; a fluid draw conduit connected to the header and extending through the header between a sump and a fluid draw port disposed external to the reservoir body , the sump being located within the reservoir volume ; a heater connected to the header , disposed within the reservoir volume , and adapted to be immersed in the fluid and adjacent to the sump ; characterized by a bag filter connected to the header , the bag filter completely enclosing the heater and the sump of the fluid draw conduit within the reservoir volume such that, when fluid is drawn from the reservoir volume through the sump , said fluid is first filtered by the bag filter . a reservoir body forming a reservoir volume and a header opening that is fluidly open to the reservoir volume ; a header connected to the reservoir body and disposed to seal the header opening ; a fluid draw conduit connected to the header and extending through the header between a sump and a fluid draw port disposed external to the reservoir body , the sump being located within the reservoir volume ; a heater connected to the header , disposed within the reservoir volume , and adapted to be immersed in the fluid and adjacent to the sump ; characterized by a bag filter connected to the header , the bag filter completely enclosing the heater and the sump of the fluid draw conduit within the reservoir volume such that, when fluid is drawn from the reservoir volume through the sump , said fluid is first filtered by the bag filter .
An automated specimen preparation system for preparing a specimen from a sample in a sample container , the system comprising: a specimen transfer device configured for holding a specimen collector thereon and for being positioned within the sample container , wherein the specimen transfer device comprises a central bore having an open distal end and a closed proximal end , a pressure monitoring port fluidly coupled to the central bore at the proximal end of the central bore , and a fluid waste evacuation port fluidly coupled to the proximal end of the central bore ; and a vacuum source; characterized in that the vacuum source is fluidly coupled to the fluid waste evacuation port ; the pressure monitoring port comprises a portion with a reduced diameter as compared to the remainder of the pressure monitoring port coupled directly to the central bore ; and the system further comprises a pressure monitoring device fluidly coupled to the pressure monitoring port . a specimen transfer device configured for holding a specimen collector thereon and for being positioned within the sample container , wherein the specimen transfer device comprises a central bore having an open distal end and a closed proximal end , a pressure monitoring port fluidly coupled to the central bore at the proximal end of the central bore , and a fluid waste evacuation port fluidly coupled to the proximal end of the central bore ; and a vacuum source; characterized in that the vacuum source is fluidly coupled to the fluid waste evacuation port ; the pressure monitoring port comprises a portion with a reduced diameter as compared to the remainder of the pressure monitoring port coupled directly to the central bore ; and the system further comprises a pressure monitoring device fluidly coupled to the pressure monitoring port .
A method for operating a smart doorbell device (100; 201), the method comprising: measuring , using a temperature sensor of the smart doorbell device (100; 201), a first measured temperature; determining , by the smart doorbell device (100; 201), that the first measured temperature has crossed a first predefined temperature threshold; in response to determining that the first measured temperature has crossed the first predefined temperature threshold, altering operation of a component (125, 135, 155; 405, 435) of the smart doorbell device (100; 201) such that user-facing functionality of the smart doorbell device (100; 201) is unchanged, wherein: altering the operation of the component (125, 135, 155; 405, 435) of the smart doorbell device (100; 201) causes the component (125, 135, 155; 405, 435) to generate more heat or less heat; measuring , using the temperature sensor of the smart doorbell device (100; 201), a second measured temperature; determining , by the smart doorbell device (100; 201), that the second measured temperature has crossed a second predefined temperature threshold; and in response to determining that the second measured temperature has crossed the second predefined temperature threshold, altering operation of the smart doorbell device (100; 201) such that a chime that is electrically coupled to the smart doorbell device (100; 201) is not sounded in response to actuation of a doorbell, but that a notification of the actuation of the doorbell is wirelessly transmitted by the smart doorbell device (100; 201). measuring , using a temperature sensor of the smart doorbell device (100; 201), a first measured temperature; determining , by the smart doorbell device (100; 201), that the first measured temperature has crossed a first predefined temperature threshold; in response to determining that the first measured temperature has crossed the first predefined temperature threshold, altering operation of a component (125, 135, 155; 405, 435) of the smart doorbell device (100; 201) such that user-facing functionality of the smart doorbell device (100; 201) is unchanged, wherein: altering the operation of the component (125, 135, 155; 405, 435) of the smart doorbell device (100; 201) causes the component (125, 135, 155; 405, 435) to generate more heat or less heat; measuring , using the temperature sensor of the smart doorbell device (100; 201), a second measured temperature; determining , by the smart doorbell device (100; 201), that the second measured temperature has crossed a second predefined temperature threshold; and in response to determining that the second measured temperature has crossed the second predefined temperature threshold, altering operation of the smart doorbell device (100; 201) such that a chime that is electrically coupled to the smart doorbell device (100; 201) is not sounded in response to actuation of a doorbell, but that a notification of the actuation of the doorbell is wirelessly transmitted by the smart doorbell device (100; 201).
A method performed by a wireless device configured to transmit feedback in a 3GPP Non-Terrestrial Network, NTN, the method comprising: being configured , by a network node , with at least one feedback enabled Hybrid Automatic Repeat Request, HARQ, process while remaining HARQ processes of the wireless device have the feedback disabled; receiving an indication of a number of slots, X, as part of a System Information Block, SIB, wherein X is specific to a delay associated with HARQ Acknowledgement/Negative Acknowledgement, ACK/NACK, feedback; receiving , from the network node, a first Physical Downlink Shared Channel, PDSCH, carrying a Medium Access Control, MAC, Control Element, CE, activation/deactivation command requiring a HARQ ACK/NACK feedback on a Physical Uplink Control Channel, PUCCH, using the at least one feedback enabled HARQ process; transmitting the HARQ ACK/NACK feedback on the PUCCH in a slot n corresponding to the first PDSCH on the PUCCH; determining a delay term via multiplying X by a number of slots per subframe for a subcarrier spacing, SCS, μ associated with the PUCCH; and wherein the information related to the MAC CE activation/deactivation command is applied at the wireless device from a slot n' where the slot n' is after a delay given by the determined delay term from the slot n. being configured , by a network node , with at least one feedback enabled Hybrid Automatic Repeat Request, HARQ, process while remaining HARQ processes of the wireless device have the feedback disabled; receiving an indication of a number of slots, X, as part of a System Information Block, SIB, wherein X is specific to a delay associated with HARQ Acknowledgement/Negative Acknowledgement, ACK/NACK, feedback; receiving , from the network node, a first Physical Downlink Shared Channel, PDSCH, carrying a Medium Access Control, MAC, Control Element, CE, activation/deactivation command requiring a HARQ ACK/NACK feedback on a Physical Uplink Control Channel, PUCCH, using the at least one feedback enabled HARQ process; transmitting the HARQ ACK/NACK feedback on the PUCCH in a slot n corresponding to the first PDSCH on the PUCCH; determining a delay term via multiplying X by a number of slots per subframe for a subcarrier spacing, SCS, μ associated with the PUCCH; and wherein the information related to the MAC CE activation/deactivation command is applied at the wireless device from a slot n' where the slot n' is after a delay given by the determined delay term from the slot n.
Self-clamping cable guard for clamping power cables of a power cable bundle of a cable support arrangement in a wind turbine , wherein the self-clamping cable guard comprises three recesses arranged about a central longitudinal axis (L 40 ) of the self-clamping cable guard for positively clamping a power cable of the power cable bundle inside of each of the three recesses , and wherein the self-clamping cable guard comprises three wear protection plates arranged about the central longitudinal axis (L 40 ), wherein each of the three recesses comprises an open side for insertion of a respective power cable of the power cable bundle therein, each of the open sides of one of the three recesses being respectively limited by two of the three wear protection plates to protect the power cables clamped inside the recesses from wear. wherein the self-clamping cable guard comprises three recesses arranged about a central longitudinal axis (L 40 ) of the self-clamping cable guard for positively clamping a power cable of the power cable bundle inside of each of the three recesses , and wherein the self-clamping cable guard comprises three wear protection plates arranged about the central longitudinal axis (L 40 ), wherein each of the three recesses comprises an open side for insertion of a respective power cable of the power cable bundle therein,
Working machine comprising a working head having a spindle and being movable in a xyz working space and further comprising a clamping device for clamping pieces to be worked by said machine, characterized in that said clamping device comprises first and second clamping means which are movable along a z direction between a first operative position, in which they are in clamping contact with pieces to be worked, and a second non-operative position, in which they are at a distance from said pieces , said first and second clamping means being fixed with respect to an xy working plane when in said first operative position and being movable together with said working head in said xy working plane when in said second non-operative position, said first and second clamping means being alternatively movable between said first and second position during a working cycle of said working machine.
A suspension device for balancing a weight, especially a suspension device allowing a patient or a limb of a patient to be at least partially supported in a predetermined direction, comprising a casing , a direction guide for the supportive movement, a lever for pivotal connection between the direction guide and the casing around a first axis and at least one spring assembly connecting the lever with the casing , wherein the lever comprises a second pivotal axis in a distance from the connection between the first pivotal axis and the attachment of the direction guide , wherein the at least one spring assembly is pivotally attached between that second pivotal axis and a fourth pivotal axis connected with the casing , characterized in that the at least one spring assembly is a zero-length spring assembly.
A fixing for attaching an object to a panel , the fixing comprising: a head member configured to be located on a first side of the panel ; a back member configured to be located on a second side of the panel and to receive at least part of an attachment element ; and a neck member connecting the head member and the back member , wherein the head member , neck member , and back member are rigidly coupled together and a part of the back member extends radially outwardly with respect to the head member , such that the back member is locatable on the second side of the panel by manipulation of the rigidly coupled head member , neck member and back member , characterised in that the back member defines a plurality of apertures . a head member configured to be located on a first side of the panel ; a back member configured to be located on a second side of the panel and to receive at least part of an attachment element ; and a neck member connecting the head member and the back member , wherein the head member , neck member , and back member are rigidly coupled together and a part of the back member extends radially outwardly with respect to the head member , such that the back member is locatable on the second side of the panel by manipulation of the rigidly coupled head member , neck member and back member , characterised in that the back member defines a plurality of apertures .