mhurhangee/patent-ind-claim-en huggingface dataset:
A cart comprising: an ultraviolet (UV) light array including UV lamps configured to emit UV light to sanitize a surface of a component; a body that includes a mobile base and multiple interconnected rigid members supported by the mobile base , wherein the UV lamps are mounted to at least one of the rigid members ; actuators mechanically connected to the body , one or more of the actuators configured to move the at least one of the rigid members on which the UV lamps are mounted relative to the mobile base ; and a control unit configured to generate control signals for controlling the actuators to move the UV light array along a cleaning path that follows a contour of the surface; wherein the rigid members include arms and a trunk , the trunk mounted to the mobile base , the arms extending from the trunk in opposite directions and holding at least some of the UV lamps of the UV light array to provide a linear arrangement of the UV lamps ; wherein each of the arms includes at least an inner member and an outer member , the inner member disposed between the outer member and the trunk , wherein the outer member is configured to retract to nest within the inner member and to linearly extend outward from the inner member to increase the length of the arm ; and wherein the cart further comprises additional UV lamps disposed on end effectors mounted to the arms , the end effectors being configured to selectively project from the arms . an ultraviolet (UV) light array including UV lamps configured to emit UV light to sanitize a surface of a component; a body that includes a mobile base and multiple interconnected rigid members supported by the mobile base , wherein the UV lamps are mounted to at least one of the rigid members ; actuators mechanically connected to the body , one or more of the actuators configured to move the at least one of the rigid members on which the UV lamps are mounted relative to the mobile base ; and a control unit configured to generate control signals for controlling the actuators to move the UV light array along a cleaning path that follows a contour of the surface; wherein the rigid members include arms and a trunk , the trunk mounted to the mobile base , the arms extending from the trunk in opposite directions and holding at least some of the UV lamps of the UV light array to provide a linear arrangement of the UV lamps ; wherein each of the arms includes at least an inner member and an outer member , the inner member disposed between the outer member and the trunk , wherein the outer member is configured to retract to nest within the inner member and to linearly extend outward from the inner member to increase the length of the arm ; and wherein the cart further comprises additional UV lamps disposed on end effectors mounted to the arms , the end effectors being configured to selectively project from the arms .
A condenser microphone comprising at least one membrane , at least one electrode associated with the membrane , at least one ring-shaped insulator in contact with the electrode and holding the electrode , at least one diaphragm ring in contact with and holding the membrane , at least one spacer ring which holds the electrode at a distance from the diaphragm , and a retaining ring which holds the said components and rests on the diaphragm ring , the diaphragm ring and/or the annular insulator optionally being made of ceramic material, characterized in that the retaining ring is made of ceramic material.
A coolant liquid processing system comprising: a filtration device for filtering a coolant liquid containing sludge; and a detector that detects particles in a treatment liquid filtered by the filtration device , characterized by a control unit that is configured to stop operation of a filtration treatment or to produce an alarm of a leakage of the sludge due to a damage to a filter in a case where a predetermined number or more of particles having a predetermined particle size larger than the opening size of the filter are detected by the detector . a filtration device for filtering a coolant liquid containing sludge; and a detector that detects particles in a treatment liquid filtered by the filtration device , characterized by a control unit that is configured to stop operation of a filtration treatment or to produce an alarm of a leakage of the sludge due to a damage to a filter in a case where a predetermined number or more of particles having a predetermined particle size larger than the opening size of the filter are detected by the detector .
A method for controlling camera photographing in an electronic device with a front camera , a rear camera and a display located at the front of the electronic device , the method comprising: activating the front camera and the rear camera to obtain images in response to detecting an event that is entry into a self-camera photographing mode by the front camera , wherein the rear camera is further activated once a reference time has elapsed after the front camera is activated; displaying an image obtained from the activated front camera on the display ; and capturing the image using the front camera if a camera shutter function is detected based on a change of at least one of a luminance component or a color component of the image signal that be contained in an image obtained from the rear camera . activating the front camera and the rear camera to obtain images in response to detecting an event that is entry into a self-camera photographing mode by the front camera , wherein the rear camera is further activated once a reference time has elapsed after the front camera is activated; displaying an image obtained from the activated front camera on the display ; and capturing the image using the front camera if a camera shutter function is detected based on a change of at least one of a luminance component or a color component of the image signal that be contained in an image obtained from the rear camera .
A method for enrichment of a mammalian pluripotent stem cell population or a mammalian pluripotent stem cell fraction, comprising exposing body tissue-derived cells to cellular stress, wherein cellular stress is selected from among culture under low-oxygen conditions, culture under low phosphate conditions, culture under serum starvation conditions, culture in a sugar starvation state, culture under exposure to radiation, culture under exposure to heat shock, culture in presence of a toxic substance, culture in the presence of active oxygen, culture under mechanical stimulation, and culture under pressure treatment.
An ejector trailer comprising: an apron movable along a length of the ejector trailer, the apron comprising a plurality of threaded apertures at or about a periphery of the apron; a plurality of threaded rods coupled to a respective one of the plurality of threaded apertures of the apron; and a drive mechanism coupled to the plurality of threaded rods to rotate the threaded rods to move the apron along the length of the ejector trailer; characterized in that each threaded rod comprises a plurality of threaded rod sections coupled together, wherein two adjacent threaded rod sections are coupled together with a threadless rod joiner received within hollow portions of the threaded rod sections. an apron movable along a length of the ejector trailer, the apron comprising a plurality of threaded apertures at or about a periphery of the apron; a plurality of threaded rods coupled to a respective one of the plurality of threaded apertures of the apron; and a drive mechanism coupled to the plurality of threaded rods to rotate the threaded rods to move the apron along the length of the ejector trailer; characterized in that each threaded rod comprises a plurality of threaded rod sections coupled together, wherein two adjacent threaded rod sections are coupled together with a threadless rod joiner received within hollow portions of the threaded rod sections.
A method comprising: transferring a fluid sample onto a cap of a sample container , the sample container comprising the cap and a sample container body ; attaching the cap to the sample container body to form a closed sample container, wherein the sample container body holds a reagent comprising a reporter and a support reagent, the support reagent comprising at least 500 μL of a red blood cell lysis solution; inverting the closed sample container to mix the fluid sample with the reagent; and analyzing a mixture of the fluid sample and the reagent with an analytical device, the analytical device being a flow cytometer. transferring a fluid sample onto a cap of a sample container , the sample container comprising the cap and a sample container body ; attaching the cap to the sample container body to form a closed sample container, wherein the sample container body holds a reagent comprising a reporter and a support reagent, the support reagent comprising at least 500 μL of a red blood cell lysis solution; inverting the closed sample container to mix the fluid sample with the reagent; and analyzing a mixture of the fluid sample and the reagent with an analytical device, the analytical device being a flow cytometer.
A water-cooled heat dissipation device, comprising a first water-cooled plate and a sealing plate ; wherein the first water-cooled plate comprises a first water-cooled substrate (1-1) and a plurality of first heat dissipation fins (1-3) arranged on the first water-cooled substrate (1-1); and the sealing plate comprises a sealing plate substrate (2-1) and a plurality of second heat dissipation fins (2-2) arranged on the sealing plate substrate (2-1) and each arranged between two of the plurality of first heat dissipation fins (1-3), and the first water-cooled substrate (1-1) is hermetically matched with the sealing plate substrate (2-2) to form a water-cooled cavity (1-2) for accommodating the plurality of first heat dissipation fins (1-3) and the plurality of second heat dissipation fins (2-2); characterized in that , the water-cooled heat dissipation device further comprises a first heat-conducting component with one end connected to the first water-cooled substrate (1-1) and the other end connected to the second heat dissipation fins (2-2). the first water-cooled plate comprises a first water-cooled substrate (1-1) and a plurality of first heat dissipation fins (1-3) arranged on the first water-cooled substrate (1-1); and the sealing plate comprises a sealing plate substrate (2-1) and a plurality of second heat dissipation fins (2-2) arranged on the sealing plate substrate (2-1) and each arranged between two of the plurality of first heat dissipation fins (1-3), and the first water-cooled substrate (1-1) is hermetically matched with the sealing plate substrate (2-2) to form a water-cooled cavity (1-2) for accommodating the plurality of first heat dissipation fins (1-3) and the plurality of second heat dissipation fins (2-2); characterized in that , the water-cooled heat dissipation device further comprises a first heat-conducting component with one end connected to the first water-cooled substrate (1-1) and the other end connected to the second heat dissipation fins (2-2).
A unidirectional fabric, wherein the fabric is prepared by sequentially and continuously spreading (SI01) multiple ultra-high molecular weight polyethylene thin films or strips along a direction; and connecting (SI02) the multiple ultra-high molecular weight polyethylene thin films or strips into a whole to obtain the unidirectional fabric, wherein the ultra-high molecular weight polyethylene thin film or strip has a certain width and thickness and has an integral structure without integration points or trim lines, wherein the ultra-high molecular weight polyethylene thin films or strips are sequentially and continuously spread through a tension regulating roller at a drawing tension of not more than 5g/d, characterised in that any two adjacent ultra-high molecular weight polyethylene thin films or strips are bonded by adhesive and are not mutually overlapped, and the adhesive is coated on the adjacent parts of any two adjacent ultra-high molecular weight polyethylene thin films or strips to bond the two ultra-high molecular weight polyethylene thin films or strips together.
A radio frequency (RF) mixer comprising: a first photonic modulator adapted to impose RF signals received through an input of the RF mixer onto a first optical beam (I); a second photonic modulator adapted to impose a LO signal from a LO signal source onto a second optical beam (II); the RF mixer characterised in comprising: an optical splitter arranged to split the first optical beam (I) outputted from the first photonic modulator to provide a third optical beam (III) and a fourth optical beam (IV); an optical combiner adapted to combine the third optical beam (III) with the second optical beam (II); a balanced photodetector circuit arranged to provide an electrical signal output corresponding to a difference between the electrical responses of: a first photodetector arranged to receive the combined third optical beam (III) and second optical beam (II), and a second photodetector arranged to receive the fourth optical beam (IV). a first photonic modulator adapted to impose RF signals received through an input of the RF mixer onto a first optical beam (I); a second photonic modulator adapted to impose a LO signal from a LO signal source onto a second optical beam (II); the RF mixer characterised in comprising: an optical splitter arranged to split the first optical beam (I) outputted from the first photonic modulator to provide a third optical beam (III) and a fourth optical beam (IV); an optical combiner adapted to combine the third optical beam (III) with the second optical beam (II); a balanced photodetector circuit arranged to provide an electrical signal output corresponding to a difference between the electrical responses of: a first photodetector arranged to receive the combined third optical beam (III) and second optical beam (II), and a second photodetector arranged to receive the fourth optical beam (IV). an optical splitter arranged to split the first optical beam (I) outputted from the first photonic modulator to provide a third optical beam (III) and a fourth optical beam (IV); an optical combiner adapted to combine the third optical beam (III) with the second optical beam (II); a balanced photodetector circuit arranged to provide an electrical signal output corresponding to a difference between the electrical responses of: a first photodetector arranged to receive the combined third optical beam (III) and second optical beam (II), and a second photodetector arranged to receive the fourth optical beam (IV). a first photodetector arranged to receive the combined third optical beam (III) and second optical beam (II), and a second photodetector arranged to receive the fourth optical beam (IV).
A method for determining the presence or absence of a member of a group of bacterial organisms in a sample, wherein the method comprises determining whether a target region of the smpB gene, which codes for the RNA binding protein small protein B, is present in said sample, wherein the group of bacterial organisms is a species and the bacterial species is Legionella pneumophila and the target region can be detected using primers comprising SEQ ID NO: 10 and SEQ ID NO: 12 and a probe comprising SEQ ID NO: 14; wherein an amplicon comprising the target region is amplified in a nucleic acid amplification method, and wherein the nucleic acid amplification method comprises a PCR.
A modified protein of a herpes simplex virus (HSV) envelope glycoprotein D (gD) (modified HSV gD protein), wherein: the modified HSV gD protein is derived from a wild-type HSV gD by modification of at least one B cell epitope having low or no neutralizing antibody-inducing activity compared to a B cell epitope present in a receptor-binding domain (RBD) (a decotope) in the ectodomain of the wild-type HSV gD, so that the modified epitope does not function as an epitope; wherein: (i) the modification of the decotope includes a modification by introducing a glycochain to an amino acid residue corresponding to a proline residue at position 50 in the amino acid sequence set forth in SEQ ID NO: 1 in the ectodomain of the wild-type HSV gD; and/or (ii) the modification of the decotope includes a modification by introducing a glycochain to an amino acid residue corresponding to a proline residue at position 74 in the amino acid sequence set forth in SEQ ID NO: 1 in the ectodomain of the wild-type HSV gD; and/or (iii) the modification of the decotope includes a modification by introducing a glycochain to an amino acid residue corresponding to an arginine residue at position 186 in the amino acid sequence set forth in SEQ ID NO: 1 in the ectodomain of the wild-type HSV gD. (i) the modification of the decotope includes a modification by introducing a glycochain to an amino acid residue corresponding to a proline residue at position 50 in the amino acid sequence set forth in SEQ ID NO: 1 in the ectodomain of the wild-type HSV gD; and/or (ii) the modification of the decotope includes a modification by introducing a glycochain to an amino acid residue corresponding to a proline residue at position 74 in the amino acid sequence set forth in SEQ ID NO: 1 in the ectodomain of the wild-type HSV gD; and/or (iii) the modification of the decotope includes a modification by introducing a glycochain to an amino acid residue corresponding to an arginine residue at position 186 in the amino acid sequence set forth in SEQ ID NO: 1 in the ectodomain of the wild-type HSV gD.
A method for forming a ring network of a plurality of at least three Bluetooth ® speakers as an organized set of Bluetooth ® speakers paired to one another in a chain, in which the end of the chain connects back to the beginning of the chain forming a ring architecture, the method comprising: populating a configurable speaker register of a first Bluetooth ® speaker (s(n)) of the plurality of at least three Bluetooth ® speakers with an address of a second Bluetooth ® speaker (s(n-1)) of the plurality of at least three Bluetooth ® speakers, the second Bluetooth ® speaker (s(n-1)) having a downstream port connected to an upstream port of the first Bluetooth ® speaker (s(n)); populating the configurable speaker register of the first Bluetooth ® speaker (s(n)) with an address of a third Bluetooth ® speaker (s(n+1)) of the plurality of at least three Bluetooth ® speakers, the first Bluetooth ® speaker (s(n)) having a downstream port connected to an upstream port of the third Bluetooth ® speaker (s(n+1)); and upon receiving audio data from an audio device , taking control of the ring network , by the first Bluetooth ® speaker (s(n)), by sending a ringleader message through the downstream port of the first Bluetooth ® speaker (s(n)) to the upstream port of the third Bluetooth ® speaker (s(n+1)) and forwarding the received audio data around the ring network to be played on each of the first, second and third Bluetooth ® speakers. populating a configurable speaker register of a first Bluetooth ® speaker (s(n)) of the plurality of at least three Bluetooth ® speakers with an address of a second Bluetooth ® speaker (s(n-1)) of the plurality of at least three Bluetooth ® speakers, the second Bluetooth ® speaker (s(n-1)) having a downstream port connected to an upstream port of the first Bluetooth ® speaker (s(n)); populating the configurable speaker register of the first Bluetooth ® speaker (s(n)) with an address of a third Bluetooth ® speaker (s(n+1)) of the plurality of at least three Bluetooth ® speakers, the first Bluetooth ® speaker (s(n)) having a downstream port connected to an upstream port of the third Bluetooth ® speaker (s(n+1)); and upon receiving audio data from an audio device , taking control of the ring network , by the first Bluetooth ® speaker (s(n)), by sending a ringleader message through the downstream port of the first Bluetooth ® speaker (s(n)) to the upstream port of the third Bluetooth ® speaker (s(n+1)) and forwarding the received audio data around the ring network to be played on each of the first, second and third Bluetooth ® speakers.
A method comprising: searching (101; 201; 401) for a smallest data unit of a buffer with regard to appending data in an append write request; sequentially writing (102; 202; 402) at least some of the appending data into the smallest data unit of the buffer to obtain a first smallest data unit to be stored, and writing (103; 203; 403) data not yet written in the appending data into at least one smallest data unit to obtain at least one second smallest data unit to be stored; characterized in that writing (104; 204; 404) the first smallest data unit to be stored into a storage device in an overwriting manner, and sequentially writing (105; 205; 405) the at least one second smallest data unit to be stored into the storage device; and buffering (106; 206; 406) a smallest data unit not fully written that corresponds to the appending data. searching (101; 201; 401) for a smallest data unit of a buffer with regard to appending data in an append write request; sequentially writing (102; 202; 402) at least some of the appending data into the smallest data unit of the buffer to obtain a first smallest data unit to be stored, and writing (103; 203; 403) data not yet written in the appending data into at least one smallest data unit to obtain at least one second smallest data unit to be stored; characterized in that writing (104; 204; 404) the first smallest data unit to be stored into a storage device in an overwriting manner, and sequentially writing (105; 205; 405) the at least one second smallest data unit to be stored into the storage device; and buffering (106; 206; 406) a smallest data unit not fully written that corresponds to the appending data.
An injection molding machine comprising: a mold clamping unit configured to clamp a mold unit; an injection unit configured to fill the mold unit clamped by the mold clamping unit with a molding material; an ejector unit configured to eject a molding product from the mold unit after the molding material filled by the injection unit is cooled and solidified; a controller configured to execute start processing or ending processing of the injection molding machine including setting or updating of a parameter or a program regarding predetermined processing; and a display unit , wherein the display unit is configured to display that the injection molding machine is in an operation state related to the setting or updating of the parameter or the program while the controller executes the start processing or the ending processing of the injection molding machine. a mold clamping unit configured to clamp a mold unit; an injection unit configured to fill the mold unit clamped by the mold clamping unit with a molding material; an ejector unit configured to eject a molding product from the mold unit after the molding material filled by the injection unit is cooled and solidified; a controller configured to execute start processing or ending processing of the injection molding machine including setting or updating of a parameter or a program regarding predetermined processing; and a display unit , wherein the display unit is configured to display that the injection molding machine is in an operation state related to the setting or updating of the parameter or the program while the controller executes the start processing or the ending processing of the injection molding machine.