mhurhangee/ep-ind-claims huggingface dataset:
A method of generating ink data including stroke objects that are vector data configured to reproduce paths formed by operating an indicator on a position input sensor of a device, the method comprising: receiving device-dependent user-input data including either one of pen event data of Type 1 data, which includes indicator position data and indicator pressure data, or pen event data of Type 2 data, which includes indicator position data but does not include indicator pressure data; determining whether the pen event data includes indicator pressure data or not; if the pen event data includes indicator pressure data, using the indicator pressure data of each point of multiple points that form a stroke in the pen event data to derive a velocity parameter (vn) at that point; if the pen event data does not include indicator pressure data, obtaining time information at each point of the multiple points and deriving the velocity parameter (vn) corresponding to a velocity of each point based on the time information of the point and of one or more adjacent points; deriving (S1207, S1209) one or both of radius data for defining width of the stroke object and transparency data for defining a transparency of the stroke, based on the velocity parameter; and outputting a stroke object including said one or both of radius data and transparency data as device-independent common attribute value(s) of each of multiple points of the stroke object in a predetermined format. receiving device-dependent user-input data including either one of pen event data of Type 1 data, which includes indicator position data and indicator pressure data, or pen event data of Type 2 data, which includes indicator position data but does not include indicator pressure data; determining whether the pen event data includes indicator pressure data or not; if the pen event data includes indicator pressure data, using the indicator pressure data of each point of multiple points that form a stroke in the pen event data to derive a velocity parameter (vn) at that point; if the pen event data does not include indicator pressure data, obtaining time information at each point of the multiple points and deriving the velocity parameter (vn) corresponding to a velocity of each point based on the time information of the point and of one or more adjacent points; deriving (S1207, S1209) one or both of radius data for defining width of the stroke object and transparency data for defining a transparency of the stroke, based on the velocity parameter; and outputting a stroke object including said one or both of radius data and transparency data as device-independent common attribute value(s) of each of multiple points of the stroke object in a predetermined format.
A laser processing apparatus for converging a plurality of pulsed laser light at an object to be processed, so as to form a plurality of modified spots within the object along a line to cut and cause the plurality of modified spots to produce a modified region, the apparatus comprising: a first laser light source for emitting a first pulsed laser light having a first wavelength; a second laser light source for emitting a second pulsed laser light having a second wavelength different from the first wavelength; characterized by a first half-wave plate for changing a direction of polarization of the first pulsed laser light; a second half-wave plate for changing a direction of polarization of the second pulsed laser light; polarization separation means (106, 107, 201) for polarization-separating the first pulsed laser light having the direction of polarization changed by the first half-wave plate and the second pulsed laser light having the direction of polarization changed by the second half-wave plate; a condenser lens for converging at the object the first and second pulsed laser light polarization-separated by the polarization separation means; and light intensity control means for controlling an intensity of the first and second pulsed laser light by varying the directions of polarization of the first and second pulsed laser light changed by the first and second half-wave plates. a first laser light source for emitting a first pulsed laser light having a first wavelength; a second laser light source for emitting a second pulsed laser light having a second wavelength different from the first wavelength; characterized by a first half-wave plate for changing a direction of polarization of the first pulsed laser light; a second half-wave plate for changing a direction of polarization of the second pulsed laser light; polarization separation means (106, 107, 201) for polarization-separating the first pulsed laser light having the direction of polarization changed by the first half-wave plate and the second pulsed laser light having the direction of polarization changed by the second half-wave plate; a condenser lens for converging at the object the first and second pulsed laser light polarization-separated by the polarization separation means; and light intensity control means for controlling an intensity of the first and second pulsed laser light by varying the directions of polarization of the first and second pulsed laser light changed by the first and second half-wave plates.
A process for forming a three-dimensional filter element from a non-woven synthetic polymer filament web, said synthetic polymer having a glass temperature T g and a melt temperature T m, said process comprising the steps of: a. providing a non-woven web of underdrawn synthetic polymer filaments having a web area and a degree of bonding such that a bonding area is from 2% to 50% of the web area; and a web tensile strength in the range of 5 to 120 N/cm, preferably from 10 to 100 N/cm; b. subjecting the non-woven web to a molding force at a temperature T d, such that T g < T d < T m to form a three-dimensional porous structure; c. cooling the three-dimensional structure to ambient temperature. a. providing a non-woven web of underdrawn synthetic polymer filaments having a web area and a degree of bonding such that a bonding area is from 2% to 50% of the web area; and a web tensile strength in the range of 5 to 120 N/cm, preferably from 10 to 100 N/cm; b. subjecting the non-woven web to a molding force at a temperature T d, such that T g < T d < T m to form a three-dimensional porous structure; c. cooling the three-dimensional structure to ambient temperature.
A fuse holder including two housing elements (4, 5) which, once assembled, make it possible to accommodate at least one fuse, each fuse including two connecting terminals and each housing element (4 or 5) including at least one contact that can make an electrical connection with one of those terminals, also including a support in which at least one fuse can be accommodated in a position in which each terminal is electrically connected to a contact, when the housing elements (4, 5) are assembled together, characterized in that the support is mounted to be mobile on one housing element of the housing elements (4 or 5) between an open position in which the fuse can be mounted in the support and a closed position in which a contact of this housing element and a terminal of the fuse are engaged one in the other.
A method in a first distributed gateway for transmitting data packets in a cellular network to a user equipment using the first distributed access gateway, comprising: receiving a first tunnel request from a second distributed access gateway; establishing a first tunnel with the second distributed access gateway; characterised by: receiving a first data packet destined to the user equipment from a native packet transport network; and transmitting the first data packet to the user equipment via the first tunnel to the second distributed access gateway, wherein the first distributed access gateway and the second distributed access gateway each sustain its own unique set of globally routable network prefixes and the user equipment has an Internet Protocol, IP, address associated with the first distributed access gateway, and the user equipment is directly connected to the second distributed access gateway at the network layer. receiving a first tunnel request from a second distributed access gateway; establishing a first tunnel with the second distributed access gateway; characterised by: receiving a first data packet destined to the user equipment from a native packet transport network; and transmitting the first data packet to the user equipment via the first tunnel to the second distributed access gateway, wherein the first distributed access gateway and the second distributed access gateway each sustain its own unique set of globally routable network prefixes and the user equipment has an Internet Protocol, IP, address associated with the first distributed access gateway, and the user equipment is directly connected to the second distributed access gateway at the network layer. receiving a first data packet destined to the user equipment from a native packet transport network; and transmitting the first data packet to the user equipment via the first tunnel to the second distributed access gateway, wherein the first distributed access gateway and the second distributed access gateway each sustain its own unique set of globally routable network prefixes and the user equipment has an Internet Protocol, IP, address associated with the first distributed access gateway, and the user equipment is directly connected to the second distributed access gateway at the network layer.
A method for forming a polymer blend, the method comprising: (i) charging to a reactive extruder a first polymer and a second polymer to form an initial blend, where the first polymer is a propylene-based elastomer including up to 35% by weight ethylene-derived units having a heat of fusion, as determined according to DSC procedures according to ASTM E-793, of less than 80 J/g and a melt temperature of less than 110°C, where the second polymer is a propylene-based polymer having a melt temperature in excess of 110°C and a heat of fusion in excess of 80 J/g; (ii) after said step of charging, charging a peroxide to the initial blend to thereby form a reactive blend; (iii) conducting the reactive blend at a flow rate through a series of barrels within the extruder; (iv) subjecting the reactive blend, in one or more barrels, to high shear mixing; (v) maintaining the temperature of the reactive blend at a temperature sufficient to decompose at least 50% of the peroxide and thereby form a reacted blend; (vi) restricting flow rate of the reacted blend through one or more barrels to increase the time that the reactive blend is subjected to the high shear mixing; (vii) removing compounds from the reacted blend or the reactive blend; (viii) introducing an antioxidant to the reacted blend; (ix) increasing flow rate of the reacted blend through one or more barrels; (x) after said step of increasing the flow rate, passing the reacted blend through one or more screens to thereby remove unwanted contaminates; and (xi) pelletizing the reacted blend. (i) charging to a reactive extruder a first polymer and a second polymer to form an initial blend, where the first polymer is a propylene-based elastomer including up to 35% by weight ethylene-derived units having a heat of fusion, as determined according to DSC procedures according to ASTM E-793, of less than 80 J/g and a melt temperature of less than 110°C, where the second polymer is a propylene-based polymer having a melt temperature in excess of 110°C and a heat of fusion in excess of 80 J/g; (ii) after said step of charging, charging a peroxide to the initial blend to thereby form a reactive blend; (iii) conducting the reactive blend at a flow rate through a series of barrels within the extruder; (iv) subjecting the reactive blend, in one or more barrels, to high shear mixing; (v) maintaining the temperature of the reactive blend at a temperature sufficient to decompose at least 50% of the peroxide and thereby form a reacted blend; (vi) restricting flow rate of the reacted blend through one or more barrels to increase the time that the reactive blend is subjected to the high shear mixing; (vii) removing compounds from the reacted blend or the reactive blend; (viii) introducing an antioxidant to the reacted blend; (ix) increasing flow rate of the reacted blend through one or more barrels; (x) after said step of increasing the flow rate, passing the reacted blend through one or more screens to thereby remove unwanted contaminates; and (xi) pelletizing the reacted blend.
A method in a camera system for processing a stream of image frames, comprising: in response to detecting an event, generating a hardcoded alert image frame, wherein the hardcoded alert image frame includes motion deltas and/or color changes with respect to an event image frame of the stream of image frames, wherein the event image frame is captured at a time corresponding to a time when the event occurred, and wherein the hardcoded alert image frame is generated in software to produce a desired change in a video stream when displayed to an operator; generating a stream of encoded image frames; and inserting the hardcoded alert image frame in the stream of encoded image frames in display order after the encoded event image frame, wherein the hardcoded alert image frame is an inter-image frame and wherein the encoded event image frame is a reference frame for a Group of Pictures, GOP. in response to detecting an event, generating a hardcoded alert image frame, wherein the hardcoded alert image frame includes motion deltas and/or color changes with respect to an event image frame of the stream of image frames, wherein the event image frame is captured at a time corresponding to a time when the event occurred, and wherein the hardcoded alert image frame is generated in software to produce a desired change in a video stream when displayed to an operator; generating a stream of encoded image frames; and inserting the hardcoded alert image frame in the stream of encoded image frames in display order after the encoded event image frame, wherein the hardcoded alert image frame is an inter-image frame and wherein the encoded event image frame is a reference frame for a Group of Pictures, GOP.
Connecting device (V1, V2, Vn, 90, 191) for connecting a transmission device for transmitting information, wherein the transmission device is attached to a measurement tape (1, 10, 40, 50, 110, 151, 171, 190) for determining the position of a cab in an lift shaft, the measurement tape being situated vertically in the lift shaft and being designed with respect to its length in such a way that it extends over at least two floors, and wherein the measurement tape (1, 10, 40, 50, 110, 151, 171, 190) comprises a marking unit (M1, M2, M3, Mn, 13, 25, 43, 53) for marking at least two positions in the lift shaft, wherein the marking unit (M1, M2, M3, Mn, 13, 25, 43, 53) runs along the length of the measurement tape (1, 10, 40, 50, 110, 151, 171, 190), and wherein the measurement tape (1, 10, 40, 50, 110, 151, 171, 190) comprises a carrier tape (11, 21), wherein the transmission device includes at least one communication line (5, 14, 28, 30, 41, 51, 61, 62, 63, 71, 72, 73, 81, 82, 83, 111, 122, 130, 140) for transmitting an information signal and/or at least one supply line (14, 28, 30, 41, 51, 61, 62, 63, 71, 72, 73, 81, 82, 83, 111, 122, 130, 140) for supplying power, and the at least one communication line runs along the length of the measurement tape, wherein the communication line is designed as an electrical line for transmitting an electrical signal or as a fiberglass line for transmitting an optical signal, wherein the connecting device (V1, V2, Vn, 90, 191) is designed as a guide bracket for guiding and/or supporting the measurement tape, so that it at least partially surrounds the measurement tape, and wherein the guide bracket has at least one opening (79, 93) for reading out the marking unit (M1, M2, M3, Mn, 13, 25, 43, 53), and wherein the connecting device has at least one connection contact for connecting to one of the communication lines and/or supply lines, characterised in that the at least one connection contact is movably supported in the connecting device in order to compensate for relative move-ments.
Contacting system comprising a contacting area for contacting a very or extremely small microphone, wherein the microphone comprises spring contacts disposed on the bottom side of the microphone, to which surface portions of the contacting area are assigned as counter contacts which are electrically insulated from each other: characterized in that the contacting area is disposed on a material carrier and is formed of a multilayer structure which dependent on the position within the contacting area comprises different numbers of build-up layers; the multilayer structure comprises a predetermined number of build-up layers for providing the surface portions (2; 3) forming the counter contacts of the microphone; the contacting area comprises a number of build-up layers between the surface portions (2; 3) forming the counter contacts of the microphone, which number is increased at least by 1 with respect to the predetermined number of build-up layers for providing the surface portions (2; 3) forming the counter contacts; and the contacting area comprises an enhancement between the surface portions (2; 3) forming the counter contacts of the microphone. characterized in that the contacting area is disposed on a material carrier and is formed of a multilayer structure which dependent on the position within the contacting area comprises different numbers of build-up layers; the multilayer structure comprises a predetermined number of build-up layers for providing the surface portions (2; 3) forming the counter contacts of the microphone; the contacting area comprises a number of build-up layers between the surface portions (2; 3) forming the counter contacts of the microphone, which number is increased at least by 1 with respect to the predetermined number of build-up layers for providing the surface portions (2; 3) forming the counter contacts; and the contacting area comprises an enhancement between the surface portions (2; 3) forming the counter contacts of the microphone.
A modified member for dressing a wound, characterized in that it comprises: a main body comprising a protective layer of a synthetic resin film material and a pad layer of a synthetic resin film material and having an opening formed at a central portion thereof so as to be openable/closable; a lid cover stackedly disposed on a top surface of the main body, and comprising a structure in which a cover layer of a synthetic resin film material, a release material layer selected from among a nonwoven fabric, a natural fiber fabric, and a synthetic fiber fabric, and a pressure-sensitive adhesive layer are stacked downwards in order, and in which the release material layer is adhered to the protective layer that is an upper layer of the main body by means of the pressure-sensitive adhesive layer, wherein the lid cover has an area lager than that of the lid; a release paper stackedly disposed on an underside surface of the main body; and a lid disposed at the opening and comprising a protective layer and a pad layer, which is made of a synthetic resin film material, the lid being formed in a shape of corresponding to the shape of the opening to enable the lid to open or close the opening by press-fit engagement, whereby the main body, the lid cover, the release paper, and the lid form a stacked body. a main body comprising a protective layer of a synthetic resin film material and a pad layer of a synthetic resin film material and having an opening formed at a central portion thereof so as to be openable/closable; a lid cover stackedly disposed on a top surface of the main body, and comprising a structure in which a cover layer of a synthetic resin film material, a release material layer selected from among a nonwoven fabric, a natural fiber fabric, and a synthetic fiber fabric, and a pressure-sensitive adhesive layer are stacked downwards in order, and in which the release material layer is adhered to the protective layer that is an upper layer of the main body by means of the pressure-sensitive adhesive layer, wherein the lid cover has an area lager than that of the lid; a release paper stackedly disposed on an underside surface of the main body; and a lid disposed at the opening and comprising a protective layer and a pad layer, which is made of a synthetic resin film material, the lid being formed in a shape of corresponding to the shape of the opening to enable the lid to open or close the opening by press-fit engagement, whereby the main body, the lid cover, the release paper, and the lid form a stacked body.
A beam training method, wherein the method comprises: sending, by a first terminal apparatus, a first message to a second terminal apparatus, wherein the first message is used to request a first list, the first list comprises an identifier of at least one sidelink synchronization signal, the at least one sidelink synchronization signal is a sidelink synchronization signal that is not used by the second terminal apparatus within a preset time range and/or that is not used by another terminal apparatus within an area in which the second terminal apparatus is located, and the sidelink synchronization signal comprises a primary synchronization signal and a secondary synchronization signal; receiving, by the first terminal apparatus, a second message from the second terminal apparatus, wherein the second message comprises the first list; and determining, by the first terminal apparatus, a first sidelink synchronization signal based on the identifier of the at least one sidelink synchronization signal in the first list, wherein the first sidelink synchronization signal is used for beam training. sending, by a first terminal apparatus, a first message to a second terminal apparatus, wherein the first message is used to request a first list, the first list comprises an identifier of at least one sidelink synchronization signal, the at least one sidelink synchronization signal is a sidelink synchronization signal that is not used by the second terminal apparatus within a preset time range and/or that is not used by another terminal apparatus within an area in which the second terminal apparatus is located, and the sidelink synchronization signal comprises a primary synchronization signal and a secondary synchronization signal; receiving, by the first terminal apparatus, a second message from the second terminal apparatus, wherein the second message comprises the first list; and determining, by the first terminal apparatus, a first sidelink synchronization signal based on the identifier of the at least one sidelink synchronization signal in the first list, wherein the first sidelink synchronization signal is used for beam training.