mhurhangee/ep-ind-claims huggingface dataset:
A brake caliper assembly, comprising a first brake caliper, a second brake caliper, a drive assembly, and a leaf spring, the first brake caliper and the second brake caliper symmetrically arranged on either side of a to-be-braked member, and the drive assembly configured to enable the first brake caliper and/or the second brake caliper to abut against the to-be-braked member so as to brake the to-be-braked member, wherein the leaf spring is arranged between the first brake caliper and the second brake caliper and comprises an elastic structure, the elastic structure comprises a bending portion, an extending portion, an outward-expanding portion, and an abutting portion that are connected in sequence, the outward-extending portion extends from the extending portion to the outside of the leaf spring, the bending portion is bent inwards, and the abutting portion abuts on the first brake caliper and/or the second brake caliper, and wherein the brake caliper assembly further comprises a mounting member arranged between the first brake caliper and the second brake caliper, the leaf spring being fixedly connected to the mounting member, characterized in that the mounting member comprises a body and a support portion, two sides of the body substantially extending vertically to form the support portion; and the leaf spring further comprises a connecting structure and a retaining portion that are connected to each other, the retaining portion is connected to the bending portion, and when the assembling is completed, the connecting structure is fixedly connected to the body, and the retaining portion abuts against an outer side of the support portion. wherein the leaf spring is arranged between the first brake caliper and the second brake caliper and comprises an elastic structure, the elastic structure comprises a bending portion, an extending portion, an outward-expanding portion, and an abutting portion that are connected in sequence, the outward-extending portion extends from the extending portion to the outside of the leaf spring, the bending portion is bent inwards, and the abutting portion abuts on the first brake caliper and/or the second brake caliper, and wherein the brake caliper assembly further comprises a mounting member arranged between the first brake caliper and the second brake caliper, the leaf spring being fixedly connected to the mounting member, characterized in that the mounting member comprises a body and a support portion, two sides of the body substantially extending vertically to form the support portion; and the leaf spring further comprises a connecting structure and a retaining portion that are connected to each other, the retaining portion is connected to the bending portion, and when the assembling is completed, the connecting structure is fixedly connected to the body, and the retaining portion abuts against an outer side of the support portion.
A process of controlling an actuating assembly for a coupling in the driveline of a motor vehicle, wherein the actuating assembly comprises an actuator drive for moving an actuating element for actuating the coupling unit, wherein the process comprises the following steps: sensing a position signal representing the position of the actuating element; sensing a force signal representing the operating force required for shifting the actuating element; characterised by: linking a sensed position signal and an associated sensed force signal for determining an accurate position of the actuating element; controlling the actuator drive by an electronic control unit depending on the position signal and the force signal linked thereto. sensing a position signal representing the position of the actuating element; sensing a force signal representing the operating force required for shifting the actuating element; characterised by: linking a sensed position signal and an associated sensed force signal for determining an accurate position of the actuating element; controlling the actuator drive by an electronic control unit depending on the position signal and the force signal linked thereto. linking a sensed position signal and an associated sensed force signal for determining an accurate position of the actuating element; controlling the actuator drive by an electronic control unit depending on the position signal and the force signal linked thereto.
Cleaning system having a self-driving cleaning robot and a charging station for charging a rechargeable battery of the cleaning robot, wherein the charging station has a visibly arranged reference marker and the cleaning robot has an optical detecting facility, by way of which it detects the reference marker and an environment, wherein the cleaning robot has a computing facility, which is connected in a communicating manner to the detecting facility and a control facility so as to control a moving process of the cleaning robot, wherein the computing facility is designed in such a manner - that said computing facility controls a moving process of the cleaning robot towards the charging station by way of a histogram of oriented gradients if a distance d between the cleaning robot and the charging station is greater than a pre-defined distance or the detecting facility does not detect the reference marker, in that, by way of the HOG method, a feature classifier is created which is designed so as to recognise objects in the image processing and as a result generates a so-called region of interest that comprises the reference marker, - that said computing facility controls a moving process of the cleaning robot towards the charging station by way of the reference marker if the detecting facility recognises the reference marker and if a distance d between the cleaning robot and the charging station is less than or equal to the pre-defined distance, and the detecting facility detects the reference marker, characterised in that the computing facility calculates a distance d, coordinates and an angle α of the cleaning robot with respect to a middle point of the reference marker if the detecting facility detects the reference marker. - that said computing facility controls a moving process of the cleaning robot towards the charging station by way of a histogram of oriented gradients if a distance d between the cleaning robot and the charging station is greater than a pre-defined distance or the detecting facility does not detect the reference marker, in that, by way of the HOG method, a feature classifier is created which is designed so as to recognise objects in the image processing and as a result generates a so-called region of interest that comprises the reference marker, - that said computing facility controls a moving process of the cleaning robot towards the charging station by way of the reference marker if the detecting facility recognises the reference marker and if a distance d between the cleaning robot and the charging station is less than or equal to the pre-defined distance, and the detecting facility detects the reference marker,
A method for dimensioning a network service, NS, comprising: - calculating, based on given capacity requirements of the NS, a required number of virtual network functions component, VNFC, instances of each of a plurality of virtual network function, VNF, in the NS; - selecting a VNF deployment flavor, VnfDf, for each of the plurality of VNFs in the NS, based on the calculated required number of VNFC instances, comprising selecting an instantiation level for the VnfDf, wherein the instantiation level determines the number of VNFC instances to be considered on side of an Internal Connection Point, IntCP; - generating a network service deployment flavor, NsDf, including the selected VnfDfs; and - onboarding a network service descriptor, NSD, which includes the NsDf, for use for instantiating the dimensioned NS, wherein the VnfDf providing the largest capacity for a single instance is selected; wherein the instantiation level that has a minimum required number of VNFC instances is selected for the VnfDf; wherein a required VNF instance, VNF.RI, of the instantiation level, VNF.RIIL, is equal to a maximum of relative required VNF instances, VNF.RRI, of the VNF as follows: VNF.RIIL = max VNF.RRIVNFCi; and wherein RRIVNFCi means "relative required instances of VNFCi", wherein relative required instances are a ratio of the required number of VNF instances and a number of VNCF instances on the Virtualization Deployment Unit, Vdu, level specified by the instantiation level as follows: VNF.RRI = ceil VNFC.RI / Vdu Level. - calculating, based on given capacity requirements of the NS, a required number of virtual network functions component, VNFC, instances of each of a plurality of virtual network function, VNF, in the NS; - selecting a VNF deployment flavor, VnfDf, for each of the plurality of VNFs in the NS, based on the calculated required number of VNFC instances, comprising selecting an instantiation level for the VnfDf, wherein the instantiation level determines the number of VNFC instances to be considered on side of an Internal Connection Point, IntCP; - generating a network service deployment flavor, NsDf, including the selected VnfDfs; and - onboarding a network service descriptor, NSD, which includes the NsDf, for use for instantiating the dimensioned NS, wherein the VnfDf providing the largest capacity for a single instance is selected; wherein the instantiation level that has a minimum required number of VNFC instances is selected for the VnfDf; wherein a required VNF instance, VNF.RI, of the instantiation level, VNF.RIIL, is equal to a maximum of relative required VNF instances, VNF.RRI, of the VNF as follows: VNF.RIIL = max VNF.RRIVNFCi; and wherein RRIVNFCi means "relative required instances of VNFCi", wherein relative required instances are a ratio of the required number of VNF instances and a number of VNCF instances on the Virtualization Deployment Unit, Vdu, level specified by the instantiation level as follows: VNF.RRI = ceil VNFC.RI / Vdu Level.
Antenna system, comprising numerous radiation elements, at least one circuit board carrier, at least one circuit board and at least one radiation element retainer device, wherein said radiation element retainer device comprising sets of attaching means, each set of attaching means attaches one radiation element to the radiation element retainer device such, that said radiation element can be electrically connected to the at least one circuit board which is arranged on the at least one circuit board carrier, wherein the radiation element retainer device further comprising a main board on which the attaching means are located and that one radiation element retainer device comprising a plurality of attaching means, whereby said attaching means are integrally formed with the main board, such that the attaching means and the main board consist of one single piece of material, whereby each set of attaching means positions and holds one radiation element in an X-, Y- and Z-direction, wherein the X-, Y- and Z-directions are perpendicular to each other, wherein the each set of attaching means comprises one or two sets of clamp supports (202, 203) and two flange supports provided with guiding means (204, 205) and a hook, and wherein the radiation element is: • secured in the X-direction by the guiding means (204, 205) and the clamp support (202, 203), • secured in the Z-direction by the flange support, in that the hook snap fits with a corresponding notch in the radiation element and • secured in the Y-direction by the flange support through the contact with the hook and through contact along the side of the flange support in between two guiding means (204, 205). • secured in the X-direction by the guiding means (204, 205) and the clamp support (202, 203), • secured in the Z-direction by the flange support, in that the hook snap fits with a corresponding notch in the radiation element and • secured in the Y-direction by the flange support through the contact with the hook and through contact along the side of the flange support in between two guiding means (204, 205).
A hydronic heating system comprising: a fluid heating mechanism; one or more radiators (42, 44, 46, 48) having a fluid input connected to a fluid output of the fluid heating mechanism, and having a fluid output connected to a fluid input of the fluid heating mechanism; a pump having a fluid connection in series between the fluid heating mechanism and the one or more radiators (42, 44, 46, 48), wherein the pump is configured to circulate a heating fluid; and a pressure gauge connected at the fluid output of the fluid heating mechanism, configured to output pressure signals indicative of detected pressures of the heating fluid at the fluid output of the fluid heating mechanism; characterized in that the hydronic heating system further comprises a computer configured to: receive the pressure signals; store a time series of pressure minima based on the pressure signals; determine parameters of a model based on the pressure minima, wherein a day is divided into several intervals and minima in these intervals are extracted; determine a time at which the model indicative of future predicted pressure data intersects a critical value; and generate a failure notification in response to a pressure drop based on a predicted time until the future predicted pressure data intersects the critical value. a fluid heating mechanism; one or more radiators (42, 44, 46, 48) having a fluid input connected to a fluid output of the fluid heating mechanism, and having a fluid output connected to a fluid input of the fluid heating mechanism; a pump having a fluid connection in series between the fluid heating mechanism and the one or more radiators (42, 44, 46, 48), wherein the pump is configured to circulate a heating fluid; and a pressure gauge connected at the fluid output of the fluid heating mechanism, configured to output pressure signals indicative of detected pressures of the heating fluid at the fluid output of the fluid heating mechanism; characterized in that the hydronic heating system further comprises a computer configured to: receive the pressure signals; store a time series of pressure minima based on the pressure signals; determine parameters of a model based on the pressure minima, wherein a day is divided into several intervals and minima in these intervals are extracted; determine a time at which the model indicative of future predicted pressure data intersects a critical value; and generate a failure notification in response to a pressure drop based on a predicted time until the future predicted pressure data intersects the critical value. receive the pressure signals; store a time series of pressure minima based on the pressure signals; determine parameters of a model based on the pressure minima, wherein a day is divided into several intervals and minima in these intervals are extracted; determine a time at which the model indicative of future predicted pressure data intersects a critical value; and generate a failure notification in response to a pressure drop based on a predicted time until the future predicted pressure data intersects the critical value.
Brake disc with a friction ring (101a, 101b) which consists at least in part of a first material, and a brake pot which consists at least in part of a second material which is different from the first material, the friction ring (101a, 101b) having an collar (201, 202) which is configured in the axial direction, and the collar (201, 202) being connected by means of at least one connecting element to an edge of the brake pot, which edge is directed axially towards the friction ring (101a, 101b), characterized in that a plastically deformable intermediate piece is provided between the connecting element and the curved surface of the brake pot, which surface bears against the connecting element which is guided through via a hole which is provided in the collar (201, 202) and the edge.
A surgical shield for insertion into and protection of an orifice of a patient; the surgical shield comprising: a guard portion formed of cut-resistant material and having a generally tubular shape having an inner surface and an outer surface defining a thickness therebetween; the guard portion defining a lumen extending along a longitudinal axis between a proximal opening at a proximal end and a distal opening at a distal end; and a batten having a reinforcing portion connected to a handle portion; the reinforcing portion being connected to the guard portion and extending along the longitudinal axis of the guard portion; the handle portion being located at the proximal end of the guard portion and extending away from the proximal end of the guard portion; the guard portion being characterized by a bead having an enlarged thickness around the distal opening such that a distal end of the reinforcing portion and the bead at the distal end are forming a leading end to lead the insertion of the surgical shield. a guard portion formed of cut-resistant material and having a generally tubular shape having an inner surface and an outer surface defining a thickness therebetween; the guard portion defining a lumen extending along a longitudinal axis between a proximal opening at a proximal end and a distal opening at a distal end; and a batten having a reinforcing portion connected to a handle portion; the reinforcing portion being connected to the guard portion and extending along the longitudinal axis of the guard portion; the handle portion being located at the proximal end of the guard portion and extending away from the proximal end of the guard portion; the guard portion being characterized by a bead having an enlarged thickness around the distal opening such that a distal end of the reinforcing portion and the bead at the distal end are forming a leading end to lead the insertion of the surgical shield.
Battery-operated vacuum cleaner, comprising a suctioned material container, a suction head, which is arranged on the suctioned material container, a blower device for generating a suction flow, and at least one process air duct, which is arranged or formed on the suction head and is fluidically connected to the blower device, wherein a battery holder for a battery device is positioned on the suction head between the at least one process air duct of the blower device and a top side of the suction head, wherein formed on the suction head is a free region at which the battery holder is arranged, wherein the free region is open toward the top side and/or toward at least one side transverse to the top side, a receiving region is formed at the free region, and/or the free region forms a receiving region, where the battery holder sits at the receiving region, and wherein the receiving region is delimited by a base wall and a rear wall oriented transversely to the base wall, wherein the rear wall is arranged between the at least one process air duct and the top side, and wherein the base wall covers at least one duct portion of the at least one process air duct.
Fluidic system comprising - at least one channel for transporting a liquid, wherein the channel is formed from an absorbent material, and - at least one switchable polymer gel which acts as a storage reservoir and/or valve for the liquid and is in contact with the absorbent material of the channel. - at least one channel for transporting a liquid, wherein the channel is formed from an absorbent material, and - at least one switchable polymer gel which acts as a storage reservoir and/or valve for the liquid and is in contact with the absorbent material of the channel.
A sorting unit, comprising: a sorting system; a plurality of bins into which substrates are sorted by the sorting system; and a bin handler having a first end effector for receiving one bin of the plurality of bins, and a second end effector for disposing an empty bin in the previous location of the received bin. a sorting system; a plurality of bins into which substrates are sorted by the sorting system; and a bin handler having a first end effector for receiving one bin of the plurality of bins, and a second end effector for disposing an empty bin in the previous location of the received bin.
Method for delivering and receiving workpieces at a working plane (15; 19), on which are arranged different delivery stations (25, 25', 25") and remote therefrom different receiving stations (26, 26', 26"), which are part of a rail track on which autonomously movable transport robots can be moved, wherein each transport robot is equipped with a transverse conveyer on which the workpieces are supported, for example on a workpiece carrier plate or a transport box, which the transverse conveyer at one of the delivery stations conveys to the working plane (15; 19) and at one of the receiving stations receives again from the working plane (15; 19), and a.) the transverse conveyer is designed as a belt fastener, wherein two parallel belts are driven by a common drive motor and the drive motor is triggered by the control of the transport robot and its energy supply, b.) the autonomously movable transport robot receives a single work request from a central computer, c.) the transport robot picks up the corresponding signals and processing steps without feedback with the central computer from the various sensors opposite the transport robot and which are arranged on the working plane, d.) the transport robot detects a free delivery space (7, 8, 9) on the working plane (15, 19) in the region of the delivery station (25, 25', 25") and delivers the workpiece carrier plate or the transport box to the delivery space (7, 8, 9) of the working plane using the transverse conveyer, e.) the transport robot detects and starts the receiving station (26, 26', 26"), which has a finally processed workpiece carrier plate or a transport box, and receives there the workpiece carrier plate or the transport box. a.) the transverse conveyer is designed as a belt fastener, wherein two parallel belts are driven by a common drive motor and the drive motor is triggered by the control of the transport robot and its energy supply, b.) the autonomously movable transport robot receives a single work request from a central computer, c.) the transport robot picks up the corresponding signals and processing steps without feedback with the central computer from the various sensors opposite the transport robot and which are arranged on the working plane, d.) the transport robot detects a free delivery space (7, 8, 9) on the working plane (15, 19) in the region of the delivery station (25, 25', 25") and delivers the workpiece carrier plate or the transport box to the delivery space (7, 8, 9) of the working plane using the transverse conveyer, e.) the transport robot detects and starts the receiving station (26, 26', 26"), which has a finally processed workpiece carrier plate or a transport box, and receives there the workpiece carrier plate or the transport box.