mhurhangee/patent-ind-claim-en huggingface dataset:
A polishing pad (50; 50'; 150) comprising a polishing layer (10; 10'; 10") having a working surface and a second surface opposite the working surface; wherein the working surface includes a plurality of precisely shaped pores , a plurality of precisely shaped asperities and a land region ; wherein each pore has a pore opening, each asperity has an asperity base, and a plurality of the asperity bases are substantially coplanar relative to at least one adjacent pore opening ; wherein the depth (Dp) of the plurality of precisely shaped pores is less than the thickness of the land region adjacent to each precisely shaped pore and the thickness of the land region is less than about 5 mm; and wherein the polishing layer is a unitary sheet and comprises a polymer, wherein the unitary sheet includes only a single layer of material having a single composition. wherein the working surface includes a plurality of precisely shaped pores , a plurality of precisely shaped asperities and a land region ; wherein each pore has a pore opening, each asperity has an asperity base, and a plurality of the asperity bases are substantially coplanar relative to at least one adjacent pore opening ; wherein the depth (Dp) of the plurality of precisely shaped pores is less than the thickness of the land region adjacent to each precisely shaped pore and the thickness of the land region is less than about 5 mm; and wherein the polishing layer is a unitary sheet and comprises a polymer, wherein the unitary sheet includes only a single layer of material having a single composition.
A method for a domain name system, DNS, server, for configuring the DNS server to correspond to a name server, NS, partition of at least two NS partitions divided according to network carriers and/or regions, the method comprising: based on an IP address of the DNS server, obtaining an NS partition on which the DNS server has traffic by comparing an IP address of the DNS server with a name server, NS, configuration table to determine a name server, NS, region served by the DNS server to obtain the corresponding NS partition; during registration or updating the domain name configuration information, from local records or a local database, filtering out domain name configuration information belonging to the NS partition corresponding to the DNS server; wherein the local records or the local database stores all the domain name configuration information; and loading the filtered-out domain name configuration information into a memory of the DNS server and avoiding loading domain name configuration information belonging to other NS partition into the memory of the DNS server. based on an IP address of the DNS server, obtaining an NS partition on which the DNS server has traffic by comparing an IP address of the DNS server with a name server, NS, configuration table to determine a name server, NS, region served by the DNS server to obtain the corresponding NS partition; during registration or updating the domain name configuration information, from local records or a local database, filtering out domain name configuration information belonging to the NS partition corresponding to the DNS server; wherein the local records or the local database stores all the domain name configuration information; and loading the filtered-out domain name configuration information into a memory of the DNS server and avoiding loading domain name configuration information belonging to other NS partition into the memory of the DNS server.
A fluorescent protein which is: (a) a protein having the amino acid sequence of Sequence ID No. 1; or (b) a protein that has an amino acid sequence of Sequence ID No. 1 in which one to several amino acids are deleted, substituted, and/or added, wherein the protein contains I at a position corresponding to position 102 of SEQ ID NO: 1, P at a position corresponding to position 141 of SEQ ID NO: 1, S at a position corresponding to position 173 of SEQ ID NO: 1, D at a position corresponding to position 190 of SEQ ID NO: 1, V at a position corresponding to position 192 of SEQ ID NO: 1, R at a position corresponding to position 202 of SEQ ID NO: 1 and G at a position corresponding to position 218 of SEQ ID NO: 1, wherein the protein is expressed in a fluorescent state, and can serve as a fluorescent protein that switches from a non-fluorescent state to a fluorescent state by being irradiated with light for fluorescence excitation and switches from a fluorescent state to a non-fluorescent state by being irradiated with light having a specific wavelength that does not cause fluorescence excitation. (a) a protein having the amino acid sequence of Sequence ID No. 1; or (b) a protein that has an amino acid sequence of Sequence ID No. 1 in which one to several amino acids are deleted, substituted, and/or added, wherein the protein contains I at a position corresponding to position 102 of SEQ ID NO: 1, P at a position corresponding to position 141 of SEQ ID NO: 1, S at a position corresponding to position 173 of SEQ ID NO: 1, D at a position corresponding to position 190 of SEQ ID NO: 1, V at a position corresponding to position 192 of SEQ ID NO: 1, R at a position corresponding to position 202 of SEQ ID NO: 1 and G at a position corresponding to position 218 of SEQ ID NO: 1, wherein the protein is expressed in a fluorescent state, and can serve as a fluorescent protein that switches from a non-fluorescent state to a fluorescent state by being irradiated with light for fluorescence excitation and switches from a fluorescent state to a non-fluorescent state by being irradiated with light having a specific wavelength that does not cause fluorescence excitation.
Threshing method for harvesting grain crops, wherein these are separated from harvested material to be gathered, particularly in the form of grain, which is fed to a threshing phase after a gathering process (arrow B) taking place against a direction of working travel (AF) and during this phase the harvested material is processed as the respective grain crops as well as the admixtures in the form of straw (SR) and chaff (SP') (arrow C, arrow D) in such a way that essential, dischargeable admixtures (arrow D) are separated from the grain crops, these, in the form of a mixture with chaff or similar fine particles, are fed as a grain/chaff stream (C) to a final cleaning and the grains free of these residual admixtures are subsequently collected as grain crops, characterised in that during at least one feed phase (Z) preceding the final cleaning , a transport movement (T) having a component in the vertical direction (R) and a component in the direction of working travel (AF') is imparted to the at least one grain/chaff stream (C).
A system , comprising: a memory ; and at least one hardware processor coupled to the memory , the system hosting a redundant tracking system having a set of tracking subsystems (604A-C), a disruption detection module and a rendering module for rendering a virtual object in conjunction with three-dimensional space image data captured within a real world camera view, the redundant tracking system causing the at least one hardware processor to perform operations comprising: rendering a virtual object to appear at a position in a three-dimensional space captured within the real world camera view, the position in the three-dimensional space being based on a reference surface detected in the three-dimensional space image data; tracking, by a first tracking subsystem from among the set of tracking subsystems, the virtual object at the position in the three-dimensional space using tracking indicia; detecting, by the disruption detection module , an interruption of the tracking indicia; and in response to detecting the interruption of the tracking indicia, tracking the virtual object at the position in the three-dimensional space via a second tracking subsystem from among the set of tracking subsystems. a memory ; and at least one hardware processor coupled to the memory , the system hosting a redundant tracking system having a set of tracking subsystems (604A-C), a disruption detection module and a rendering module for rendering a virtual object in conjunction with three-dimensional space image data captured within a real world camera view, the redundant tracking system causing the at least one hardware processor to perform operations comprising: rendering a virtual object to appear at a position in a three-dimensional space captured within the real world camera view, the position in the three-dimensional space being based on a reference surface detected in the three-dimensional space image data; tracking, by a first tracking subsystem from among the set of tracking subsystems, the virtual object at the position in the three-dimensional space using tracking indicia; detecting, by the disruption detection module , an interruption of the tracking indicia; and in response to detecting the interruption of the tracking indicia, tracking the virtual object at the position in the three-dimensional space via a second tracking subsystem from among the set of tracking subsystems. rendering a virtual object to appear at a position in a three-dimensional space captured within the real world camera view, the position in the three-dimensional space being based on a reference surface detected in the three-dimensional space image data; tracking, by a first tracking subsystem from among the set of tracking subsystems, the virtual object at the position in the three-dimensional space using tracking indicia; detecting, by the disruption detection module , an interruption of the tracking indicia; and in response to detecting the interruption of the tracking indicia, tracking the virtual object at the position in the three-dimensional space via a second tracking subsystem from among the set of tracking subsystems.
A cargo handling vehicle comprising: a vehicle body ; a single sensor configured to observe an obstacle by emitting an emission wave to an area around the vehicle body and receiving a reflection of the emission wave; a single indicator light configured to notify a person around the vehicle body of a presence of the cargo handling vehicle ; and a mounting member configured to mount the sensor and the indicator light on the vehicle body , wherein the mounting member is disposed on an upper surface of the vehicle body , the sensor and the indicator light vertically overlap each other to be mounted on the mounting member , the indicator light is arranged below the sensor , the mounting member includes a mounting member body and legs extending from the mounting member body , the legs are mounted on the upper surface of the vehicle body , and the mounting member is formed by bending a sheet of metal, characterized in that the sensor is mounted on an upper surface of the mounting member body and the indicator light is mounted on a lower surface of the mounting member body , whereby the sensor and the indicator light vertically overlap each other, with the mounting member body located therebetween. a vehicle body ; a single sensor configured to observe an obstacle by emitting an emission wave to an area around the vehicle body and receiving a reflection of the emission wave; a single indicator light configured to notify a person around the vehicle body of a presence of the cargo handling vehicle ; and a mounting member configured to mount the sensor and the indicator light on the vehicle body , wherein the mounting member is disposed on an upper surface of the vehicle body , the sensor and the indicator light vertically overlap each other to be mounted on the mounting member , the indicator light is arranged below the sensor , the mounting member includes a mounting member body and legs extending from the mounting member body , the legs are mounted on the upper surface of the vehicle body , and the mounting member is formed by bending a sheet of metal, characterized in that the sensor is mounted on an upper surface of the mounting member body and the indicator light is mounted on a lower surface of the mounting member body , whereby the sensor and the indicator light vertically overlap each other, with the mounting member body located therebetween.
A massage toy for stimulation of a sexual organ, the massage toy comprising at least the following components: - A first toy member of the massage toy , wherein the first toy member comprises a first rod element extending along a first rotation axis , wherein the first rod element is arranged rotatably on the first rotation axis ; - A second toy member of the massage toy , wherein the second toy member comprises a second rod element extending along a second rotation axis , wherein the second rod element is arranged rotatably on the second rotation axis ; - A hinge assembly that connects the first toy member with the second toy member such that the first and the second toy member can be swiveled around a swivel axis of the hinge assembly , wherein the hinge assembly is configured to adopt an adjustable swivel angle , such that a distance between the first rotation axis and the second rotation axis is adjustable by adjusting the swivel angle ; - A motor assembly for motor-driven rotation of the first rod element around the first rotation axis and for motor-driven rotation of the second rod element around the second rotation axis , characterized in that the motor assembly comprises at least one stepper motor , characterized in that the stepper motor has a step resolution of more than 50 steps per full rotation of the respective rod element. - A first toy member of the massage toy , wherein the first toy member comprises a first rod element extending along a first rotation axis , wherein the first rod element is arranged rotatably on the first rotation axis ; - A second toy member of the massage toy , wherein the second toy member comprises a second rod element extending along a second rotation axis , wherein the second rod element is arranged rotatably on the second rotation axis ; - A hinge assembly that connects the first toy member with the second toy member such that the first and the second toy member can be swiveled around a swivel axis of the hinge assembly , wherein the hinge assembly is configured to adopt an adjustable swivel angle , such that a distance between the first rotation axis and the second rotation axis is adjustable by adjusting the swivel angle ; - A motor assembly for motor-driven rotation of the first rod element around the first rotation axis and for motor-driven rotation of the second rod element around the second rotation axis , characterized in that the motor assembly comprises at least one stepper motor , characterized in that the stepper motor has a step resolution of more than 50 steps per full rotation of the respective rod element.
A data storage unit comprising: a base section ; and a cassette section configured to be removably attached to the base section , and having a front and a back , characterised in that : the cassette section has an interface that enables the base section to access data on a plurality of solid-state modules located within the cassette section ; wherein the base section comprises one or more structures configured to separate airflow exiting the cassette section into the base section and airflow exiting the base section to provide dual environmental zones and enable the cassette section to operate under different environmental conditions from the base section , and wherein the plurality of solid-state storage modules are arranged vertically from the front of the cassette section to the back of the cassette section together with a bridge board that electronically connects the interface at the back of the cassette section to one or more components at the front of the cassette section . a base section ; and a cassette section configured to be removably attached to the base section , and having a front and a back , characterised in that : the cassette section has an interface that enables the base section to access data on a plurality of solid-state modules located within the cassette section ; wherein the base section comprises one or more structures configured to separate airflow exiting the cassette section into the base section and airflow exiting the base section to provide dual environmental zones and enable the cassette section to operate under different environmental conditions from the base section , and wherein the plurality of solid-state storage modules are arranged vertically from the front of the cassette section to the back of the cassette section together with a bridge board that electronically connects the interface at the back of the cassette section to one or more components at the front of the cassette section . the cassette section has an interface that enables the base section to access data on a plurality of solid-state modules located within the cassette section ; wherein the base section comprises one or more structures configured to separate airflow exiting the cassette section into the base section and airflow exiting the base section to provide dual environmental zones and enable the cassette section to operate under different environmental conditions from the base section , and wherein the plurality of solid-state storage modules are arranged vertically from the front of the cassette section to the back of the cassette section together with a bridge board that electronically connects the interface at the back of the cassette section to one or more components at the front of the cassette section .
A manufacturing method of a power generation element that performs power generation by vibration, comprising: preparing a substrate ; forming on the substrate a plurality of power generation elements each including a first electrode and a movable portion that has a movable electrode opposing to the first electrode ; characterized by forming on the substrate a first connecting portion (23 - 26) by which the first electrodes of the plurality of power generation elements are electrically and mutually connected with one another and a second connecting portion by which the movable electrodes of the plurality of power generation elements are electrically and mutually connected with one another. preparing a substrate ; forming on the substrate a plurality of power generation elements each including a first electrode and a movable portion that has a movable electrode opposing to the first electrode ; characterized by forming on the substrate a first connecting portion (23 - 26) by which the first electrodes of the plurality of power generation elements are electrically and mutually connected with one another and a second connecting portion by which the movable electrodes of the plurality of power generation elements are electrically and mutually connected with one another.
A method for performing frictionless two-factor authentication, the method comprising: receiving , at an authentication service , from a first entity , an indication of a request received at the first entity to access an account from a device associated with a user, the indication comprising at least one instance of first device identification information of at least one device having authorization to access the account; providing , by the authentication service , a network address to the first entity , the network address configured to be subsequently sent to the device from the first entity ; receiving , from a second entity , second device identification information, the second device identification information determined upon the device accessing to the network address; performing , a real-time comparison between the first device identification information and second device identification information; and prompting the first entity to grant the device access to the account if a match is detected between the first device identification information and second device identification information. receiving , at an authentication service , from a first entity , an indication of a request received at the first entity to access an account from a device associated with a user, the indication comprising at least one instance of first device identification information of at least one device having authorization to access the account; providing , by the authentication service , a network address to the first entity , the network address configured to be subsequently sent to the device from the first entity ; receiving , from a second entity , second device identification information, the second device identification information determined upon the device accessing to the network address; performing , a real-time comparison between the first device identification information and second device identification information; and prompting the first entity to grant the device access to the account if a match is detected between the first device identification information and second device identification information.
A method for cleaning an interior of a pipe comprising moving a shock wave generating device within the interior of the pipe and applying shock waves to clean the pipe characterized in focusing acoustic pressure shock waves in a frontal direction relative to the pipe from the shock wave generating device with a reflector to at least one of a deposit, occlusion and ice blocking or clogging the flow of fluid through the pipe so that frontal focused shock waves clean the interior of the pipe to remove the blocking or clogging.
A computer-implemented method comprising: selecting a first plurality of text strings that each represent a nucleotide sequence that was read by a massively parallel sequencing, MPS, instrument, wherein the nucleotide sequences represented by the selected first plurality of text strings each correspond to a first target locus; comparing the selected first plurality of text strings to one another to determine an abundance count for each unique text string included in the selected first plurality of text strings; identifying one or two unique text strings having the highest abundance counts from among the selected first plurality of text strings as representing the one or two true alleles for the first target locus; optionally, identifying one or more other unique text strings from among the selected first plurality of text strings as each representing an artifact; identifying all remaining unique text strings from among the selected first plurality of text strings as representing noise responses; and determining a method detection limit, MDL, as a function of the abundance counts for the unique text strings identified as representing noise responses. selecting a first plurality of text strings that each represent a nucleotide sequence that was read by a massively parallel sequencing, MPS, instrument, wherein the nucleotide sequences represented by the selected first plurality of text strings each correspond to a first target locus; comparing the selected first plurality of text strings to one another to determine an abundance count for each unique text string included in the selected first plurality of text strings; identifying one or two unique text strings having the highest abundance counts from among the selected first plurality of text strings as representing the one or two true alleles for the first target locus; optionally, identifying one or more other unique text strings from among the selected first plurality of text strings as each representing an artifact; identifying all remaining unique text strings from among the selected first plurality of text strings as representing noise responses; and determining a method detection limit, MDL, as a function of the abundance counts for the unique text strings identified as representing noise responses.