mhurhangee/ep-ind-claims huggingface dataset:
A drawer-type subscriber identification module, SIM, card structure, adapted to be mounted in the interior of a containing cavity of a housing of an electronic product, and comprising: a containing means for carrying a SIM card, which is adapted to be relatively slidably mounted in the interior of the containing cavity; a connector, adapted to be fixedly mounted in the interior of the containing cavity and configured to be in a fit connection with the SIM card within the containing means; a sensor, adapted to be fixedly mounted in the interior of the containing cavity, electrically connected to the connector, and configured to control the connection and disconnection of the connector and SIM card according to the position of the containing means; characterised by further comprising: an opening means configured for driving the containing means to slide out from the interior of the containing cavity, wherein the opening means is mounted on the housing and is located at an opening of the containing cavity and can move relative to the housing, and when the opening means is in a closed state, the opening means is in an interference fit with the sensor, pressing the sensor, such that the sensor controls the connector to connect with the SIM card, and when the opening means drives the containing means to move, the opening means detaches from the sensor, such that the sensor controls the connector to disconnect from the SIM card. a containing means for carrying a SIM card, which is adapted to be relatively slidably mounted in the interior of the containing cavity; a connector, adapted to be fixedly mounted in the interior of the containing cavity and configured to be in a fit connection with the SIM card within the containing means; a sensor, adapted to be fixedly mounted in the interior of the containing cavity, electrically connected to the connector, and configured to control the connection and disconnection of the connector and SIM card according to the position of the containing means; characterised by further comprising: an opening means configured for driving the containing means to slide out from the interior of the containing cavity, wherein the opening means is mounted on the housing and is located at an opening of the containing cavity and can move relative to the housing, and when the opening means is in a closed state, the opening means is in an interference fit with the sensor, pressing the sensor, such that the sensor controls the connector to connect with the SIM card, and when the opening means drives the containing means to move, the opening means detaches from the sensor, such that the sensor controls the connector to disconnect from the SIM card.
A device, comprising: an engagement assembly configured to receive tactile input from a hand of a user or to deliver tactile output to the hand of the user; a base assembly configured to secure the device to a forearm of the user, a deployment assembly extending from the base assembly to the engagement assembly and configured to deploy the engagement assembly from a storage orientation proximate to the base assembly to a deployed orientation proximate to the hand of the user; characterised in that the device further comprises: a controller configured to utilize virtual reality data as input data for controlling the deployment assembly to deploy or store the engagement assembly, and to automatically cause the deployment assembly to use a servo motor to deploy the engagement assembly at a rotational rate and time to engage the hand of the user to mimic the user catching a virtual object. an engagement assembly configured to receive tactile input from a hand of a user or to deliver tactile output to the hand of the user; a base assembly configured to secure the device to a forearm of the user, a deployment assembly extending from the base assembly to the engagement assembly and configured to deploy the engagement assembly from a storage orientation proximate to the base assembly to a deployed orientation proximate to the hand of the user; characterised in that the device further comprises: a controller configured to utilize virtual reality data as input data for controlling the deployment assembly to deploy or store the engagement assembly, and to automatically cause the deployment assembly to use a servo motor to deploy the engagement assembly at a rotational rate and time to engage the hand of the user to mimic the user catching a virtual object.
An apparatus for determining surface topography of a patient's teeth, the apparatus comprising: a probe sized to be at least partially inserted into an intraoral cavity of the patient; an illumination unit configured to output light; a light focusing assembly (42, 220, 230) comprising an image space lens, an object space lens and a focus changing assembly (222, 232) between the image space lens and the object space lens and being configured to: overlap a plurality of light beams of the light within the light focusing assembly; and focus the plurality of light beams of the light successively to a plurality of external focal planes to illuminate the patient's teeth; a detector configured to measure one or more characteristics of incident light returning from the illuminated patient's teeth; and a processor coupled to the detector and configured to generate data representative of a topography of the patient's teeth based on the one or more measured characteristics of the incident light returning from the illuminated patient's teeth, wherein at least a portion of the focus changing assembly is located at a back focal length of the object space lens. a probe sized to be at least partially inserted into an intraoral cavity of the patient; an illumination unit configured to output light; a light focusing assembly (42, 220, 230) comprising an image space lens, an object space lens and a focus changing assembly (222, 232) between the image space lens and the object space lens and being configured to: overlap a plurality of light beams of the light within the light focusing assembly; and focus the plurality of light beams of the light successively to a plurality of external focal planes to illuminate overlap a plurality of light beams of the light within the light focusing assembly; and focus the plurality of light beams of the light successively to a plurality of external focal planes to illuminate the patient's teeth; a detector configured to measure one or more characteristics of incident light returning from the illuminated patient's teeth; and a processor coupled to the detector and configured to generate data representative of a topography of the patient's teeth based on the one or more measured characteristics of the incident light returning from the illuminated patient's teeth, wherein at least a portion of the focus changing assembly is located at a back focal length of the object space lens.
Method for determining a single axis of rotation of a rotational movement imposed by a user on a mobile application system in which: - accelerations a i of an accelerometer with three axes of the system are measured for a given duration, - the measured accelerations are expressed according to acceleration vectors relative to a Cartesian reference frame (Ro) secured to the system, - a temporal variation of an acceleration vector (ΔG i) due to the local gravitational field (Go) of the system relative to the expressed acceleration vectors is determined at each measurement instant, - the orientations (θ) of the determined acceleration vectors (ΔG i) are determined relative to the reference frame (Ro), - the determined acceleration vectors (ΔG i) are projected to a predefined projection length in the extension of their orientations so as to obtain a cloud of points (T i), - a direction of a single axis of rotation corresponding to the axis of rotation of the system is determined as a function of the cloud of points, the direction of the single axis of rotation being defined by the coordinates of said axis in the Cartesian reference frame (Ro). - accelerations a i of an accelerometer with three axes of the system are measured for a given duration, - the measured accelerations are expressed according to acceleration vectors relative to a Cartesian reference frame (Ro) secured to the system, - a temporal variation of an acceleration vector (ΔG i) due to the local gravitational field (Go) of the system relative to the expressed acceleration vectors is determined at each measurement instant, - the orientations (θ) of the determined acceleration vectors (ΔG i) are determined relative to the reference frame (Ro), - the determined acceleration vectors (ΔG i) are projected to a predefined projection length in the extension of their orientations so as to obtain a cloud of points (T i), - a direction of a single axis of rotation corresponding to the axis of rotation of the system is determined as a function of the cloud of points, the direction of the single axis of rotation being defined by the coordinates of said axis in the Cartesian reference frame (Ro).
A double mechanical seal device, comprising a rotary ring mounted on a rotary shaft so as to rotate together with the rotary shaft, the rotary ring having seal surfaces (32,33) formed on each of both axial end surfaces; an inside stationary ring arranged at an inside of said rotary ring, the inside stationary ring having a seal surface sealingly contacting and sliding with said seal surface of the rotary ring at an inside end of the rotary ring; an outside stationary ring arranged at an outside of said rotary ring, the outside stationary ring having a seal surface sealingly contacting and sliding with said seal surface of the rotary ring at an outside end of the rotary ring; a seal case axially-movably supporting said inside stationary ring; and a seal cover mounted on an outer surface of an apparatus having said rotary shaft penetrated thereto, the seal cover axially-movably supporting said outside stationary ring at an outside end of the apparatus; characterized in that said seal cover accommodates said seal case, said inside stationary ring, said rotary ring and said outside stationary ring in an inner bore on the inside thereof, and said seal case is supported radially by said seal cover, and provided at an inside end of the seal cover.
Building module, in particular facade module, roof module or window module, for utilizing solar energy and/or for thermal insulation, comprising: - an inner pane and an outer pane, wherein an intermediate space is formed between the inner pane and the outer pane, - a heat transfer element, in particular an absorber element, which is arranged in the intermediate space and has at least one functional surface for absorbing thermal radiation and/or for controlling the temperature of the intermediate space, - a fluid line in which a heat transport medium is conducted, wherein a thermal contact is formed between the heat transfer element and the heat transport medium in order to exchange heat between the heat transfer element and the heat transport medium, wherein the heat transfer element forms a heat conductor for thermal connection between the functional surface and the thermal contact, characterized in that the heat transfer element is configured as a solid body, wherein the functional surface and the fluid line, to which the thermal contact is assigned, are arranged juxtaposed to one another when the functional surface is viewed in a perpendicular direction. - an inner pane and an outer pane, wherein an intermediate space is formed between the inner pane and the outer pane, - a heat transfer element, in particular an absorber element, which is arranged in the intermediate space and has at least one functional surface for absorbing thermal radiation and/or for controlling the temperature of the intermediate space, - a fluid line in which a heat transport medium is conducted, wherein a thermal contact is formed between the heat transfer element and the heat transport medium in order to exchange heat between the heat transfer element and the heat transport medium,
A landing gear system for a vehicle trailer having an HVAC/R system, the landing gear system comprising: a landing gear configured to be raised and lowered to support the vehicle trailer; a motor coupled to the landing gear and configured to raise and lower the landing gear; and a power source operatively connected to the motor, characterised in that the power source is configured for connection with the HVAC/R system. a landing gear configured to be raised and lowered to support the vehicle trailer; a motor coupled to the landing gear and configured to raise and lower the landing gear; and a power source operatively connected to the motor, characterised in that the power source is configured for connection with the HVAC/R system.
A method for responding to a request received at an object with a radio frequency identification (RFID) device, the method comprising: receiving a request at an RFID device; providing the request from the RFID device to a component (122-1, 122-N) of the object; and processing the request at the component (122-1, 122-N)of the object, wherein receiving the request at the RFID device comprises receiving the request as an incoming RF signal at the RFID device, wherein processing the request at the component (122-1, 122-N) of the object comprises generating a response to the request at the component (122-1, 122-N) of the object, and wherein the method further comprises: providing the response from the component (122-1, 122-N) of the object to the RFID device; and transmitting the response as an outgoing RF signal from the RFID device, characterized in that the request includes an inquiry concerning a functionality of the object, and wherein generating the response comprises including information about the functionality of the object in the response. receiving a request at an RFID device; providing the request from the RFID device to a component (122-1, 122-N) of the object; and processing the request at the component (122-1, 122-N)of the object, wherein receiving the request at the RFID device comprises receiving the request as an incoming RF signal at the RFID device, wherein processing the request at the component (122-1, 122-N) of the object comprises generating a response to the request at the component (122-1, 122-N) of the object, and wherein the method further comprises: providing the response from the component (122-1, 122-N) of the object to the RFID device; and transmitting the response as an outgoing RF signal from the RFID device, providing the response from the component (122-1, 122-N) of the object to the RFID device; and transmitting the response as an outgoing RF signal from the RFID device, characterized in that the request includes an inquiry concerning a functionality of the object, and wherein generating the response comprises including information about the functionality of the object in the response.
Process for the production of a glass-ceramic blank for dental purposes with lithium silicate as crystal phase, wherein (a) blanks or residues of blanks of lithium silicate glass-ceramic are melted to form a glass, (b) optionally, the molten glass is converted into a glass frit and the glass frit is melted to form a glass, (c) the glass from step (a) or (b) is shaped into a glass blank, (d) the glass blank is heat treated at a temperature of in particular 450 to 600°C to form a glass blank with nuclei, (e) the glass blank with nuclei is subjected to a heat treatment at a temperature of in particular 600 to 850°C to form a glass-ceramic blank with lithium metasilicate as crystal phase, or to a heat treatment at a temperature of in particular 700 to 1000°C to form a glass-ceramic blank with lithium disilicate as crystal phase, (f) optionally the glass-ceramic blank with lithium metasilicate as crystal phase from step (e) is subjected to a heat treatment at a temperature of in particular 700 to 1000°C to form a glass-ceramic blank with lithium disilicate as crystal phase, and (g) optionally at least one chemical compound is added in step (a) and/or (b) to change the chemical composition of the glass and/or the glass frit. (a) blanks or residues of blanks of lithium silicate glass-ceramic are melted to form a glass, (b) optionally, the molten glass is converted into a glass frit and the glass frit is melted to form a glass, (c) the glass from step (a) or (b) is shaped into a glass blank, (d) the glass blank is heat treated at a temperature of in particular 450 to 600°C to form a glass blank with nuclei, (e) the glass blank with nuclei is subjected to a heat treatment at a temperature of in particular 600 to 850°C to form a glass-ceramic blank with lithium metasilicate as crystal phase, or to a heat treatment at a temperature of in particular 700 to 1000°C to form a glass-ceramic blank with lithium disilicate as crystal phase, (f) optionally the glass-ceramic blank with lithium metasilicate as crystal phase from step (e) is subjected to a heat treatment at a temperature of in particular 700 to 1000°C to form a glass-ceramic blank with lithium disilicate as crystal phase, and (g) optionally at least one chemical compound is added in step (a) and/or (b) to change the chemical composition of the glass and/or the glass frit.
A surgical incision closure device for approximating an incision, comprising: a first element adapted for positioning on a first side of said incision, and a second element separate from said first element and adapted for positioning on a second side of said incision; wherein the first element is substantially flat and comprised of a biocompatible material, and further includes a first longitudinal portion extending in a longitudinal direction, having a length and a width, and having first and second opposing edges extending along said length, and at least first and second arms each having a length and a width and extending substantially perpendicularly outward from the first edge of the first portion and spaced apart from one another; wherein the second element is substantially flat and comprised of a biocompatible material and further includes a second longitudinal portion extending in a longitudinal direction, having a length and a width, and first and second opposing edges extending along said length, and at least third and fourth arms each having a length and a width extending substantially perpendicularly outward from the first edge of the second portion and spaced apart from one another; characterized by distal portions (112,114) of the plurality of arms (108,110) which are reinforced with an absorbable material for facilitating tissue ingrowth. a first element adapted for positioning on a first side of said incision, and a second element separate from said first element and adapted for positioning on a second side of said incision; wherein the first element is substantially flat and comprised of a biocompatible material, and further includes a first longitudinal portion extending in a longitudinal direction, having a length and a width, and having first and second opposing edges extending along said length, and at least first and second arms each having a length and a width and extending substantially perpendicularly outward from the first edge of the first portion and spaced apart from one another; wherein the second element is substantially flat and comprised of a biocompatible material and further includes a second longitudinal portion extending in a longitudinal direction, having a length and a width, and first and second opposing edges extending along said length, and at least third and fourth arms each having a length and a width extending substantially perpendicularly outward from the first edge of the second portion and spaced apart from one another; characterized by distal portions (112,114) of the plurality of arms (108,110) which are reinforced with an absorbable material for facilitating tissue ingrowth.
Onshore production facility for offshore wind turbines at the edge of a navigable body of water or in the harbour, with a division into individual production regions within the production facility for the partial premanufacturing of the wind turbines - divided into a region as a production station for producing the foundation, a production station for producing a mast, preferably a prestressed concrete mast, a production station for the final assembly and a transfer station as a production station at the edge of the body of water, characterized in that said onshore production facility has the following apparatuses: - bracing members locally at the stations as load-dissipating assembly devices, - heavy-load module transporters on routes without a rail mounting for transport between the individual production stations (I, II, III, IV) and optionally intermediate storage sites (IIb, IIId), beneath which the bracing members can pass. - bracing members locally at the stations as load-dissipating assembly devices, - heavy-load module transporters on routes without a rail mounting for transport between the individual production stations (I, II, III, IV) and optionally intermediate storage sites (IIb, IIId), beneath which the bracing members can pass.
Shoe, in particular sports shoe, comprising a sole and a shoe upper, wherein the shoe upper has a first material section which at least partially extends around the foot of the wearer of the shoe, wherein a second material section is arranged on the outside of the first material section which at least partially covers the first material section, wherein the second material section consists of a plastic material having a shape memory effect, characterized in that the second material section is designed in such a manner that it exerts a first tensioning force onto the first material section at a first, low temperature which presses the first material section against the foot of the wearer of the shoe and that it exerts a second tensioning force onto the first material section at a second, high temperature which second tensioning force is higher than the first tensioning force, preferably at least 20 % higher than the first tensioning force.