mhurhangee/ep-ind-claims huggingface dataset:
Method for laser cutting of transparent media comprising the following steps: two pulsed beams (IR, UV) of laser radiation with different wavelengths are directed to the transparent medium to be processed; said pulsed beams (IR, UV) of laser radiation with different wavelengths are focused inside said transparent medium at different focal planes relative to depth of the processed transparent medium; cutting speed and quality are controlled by experimental preselection of parameters of said pulsed beams of laser radiation with different wavelengths, characterized in that pulses of the laser radiation beams (IR, UV) with different wavelengths arrive to their focal planes at different time moments, wherein the laser radiation pulses with the longer wavelength are delayed relative to the laser radiation pulses with the shorter wavelength; the wavelengths and the pulse delay time of said pulsed beams of laser radiation are selected depending on the particular processed transparent medium so that due to optical excitation, laser radiation pulses with the shorter wavelength produce an area with increased absorption inside said transparent medium, and the delayed laser radiation pulses with the longer wavelength fall into an existing area of said higher absorption and cause directional cleavage of said transparent medium along the cutting plane; the cutting speed and quality are controlled by experimental preselection of the pulse delay time, pulse energy ratio and spatial position of the focal planes relative to each other for said two pulsed beams of laser radiation with the different wavelengths. two pulsed beams (IR, UV) of laser radiation with different wavelengths are directed to the transparent medium to be processed; said pulsed beams (IR, UV) of laser radiation with different wavelengths are focused inside said transparent medium at different focal planes relative to depth of the processed transparent medium; cutting speed and quality are controlled by experimental preselection of parameters of said pulsed beams of laser radiation with different wavelengths, characterized in that pulses of the laser radiation beams (IR, UV) with different wavelengths arrive to their focal planes at different time moments, wherein the laser radiation pulses with the longer wavelength are delayed relative to the laser radiation pulses with the shorter wavelength; the wavelengths and the pulse delay time of said pulsed beams of laser radiation are selected depending on the particular processed transparent medium so that due to optical excitation, laser radiation pulses with the shorter wavelength produce an area with increased absorption inside said transparent medium, and the delayed laser radiation pulses with the longer wavelength fall into an existing area of said higher absorption and cause directional cleavage of said transparent medium along the cutting plane;
A printer comprising: a printhead having an ink inlet and an ink outlet; an ink chamber for supplying ink to said printhead, said chamber having an outlet port; an upstream ink line interconnecting said outlet port and said ink inlet; a downstream ink line connected to said ink outlet; and characterized by: a first air accumulator communicating with said downstream ink line, said first air accumulator being configured for dampening ink pressure pulses in said printhead during printing via compression of air trapped in the air accumulator. a printhead having an ink inlet and an ink outlet; an ink chamber for supplying ink to said printhead, said chamber having an outlet port; an upstream ink line interconnecting said outlet port and said ink inlet; a downstream ink line connected to said ink outlet; and characterized by: a first air accumulator communicating with said downstream ink line, said first air accumulator being configured for dampening ink pressure pulses in said printhead during printing via compression of air trapped in the air accumulator. a first air accumulator communicating with said downstream ink line, said first air accumulator being configured for dampening ink pressure pulses in said printhead during printing via compression of air trapped in the air accumulator.
A power tool system comprising: a tool body including a motor having an output member configured to drive an accessory, the output member defining an output member axis; an end effector coupled for rotation with the output member relative to the tool body, the end effector configured to retain an accessory; a light source disposed on the end effector; and a consumable tool removably attachable to the end effector; characterized in that the consumable tool has an illumination opening configured to be substantially aligned with the light source. a tool body including a motor having an output member configured to drive an accessory, the output member defining an output member axis; an end effector coupled for rotation with the output member relative to the tool body, the end effector configured to retain an accessory; a light source disposed on the end effector; and a consumable tool removably attachable to the end effector; characterized in that the consumable tool has an illumination opening configured to be substantially aligned with the light source.
A method, comprising: compiling, via a compiler of a host coupled to a processing in memory memory device (110, 310) including a memory array and sensing circuitry, source code to include references to a virtual register file (117, 317) for data that is subject to a logical operation, i.e. any of a Boolean logic operation, an arithmetic logic operation, a flow control logic operation or combinatorial logic operation; dereferencing, via a memory management unit of the host, the references at runtime to obtain physical addresses of memory device elements according to the virtual register file (117, 317) that stores virtual addresses of the memory device elements; and performing the logical operation in the memory device (110, 310) on data stored in the memory device elements. compiling, via a compiler of a host coupled to a processing in memory memory device (110, 310) including a memory array and sensing circuitry, source code to include references to a virtual register file (117, 317) for data that is subject to a logical operation, i.e. any of a Boolean logic operation, an arithmetic logic operation, a flow control logic operation or combinatorial logic operation; dereferencing, via a memory management unit of the host, the references at runtime to obtain physical addresses of memory device elements according to the virtual register file (117, 317) that stores virtual addresses of the memory device elements; and performing the logical operation in the memory device (110, 310) on data stored in the memory device elements.
A system for distributing a limited resource from a plurality of limited resources in response to resource requests from a plurality of clients competing for the limited resource, the system comprising: a main server configured to provide standard application server functionality for maintaining the plurality of limited resources; a server that supports a limited number of commands for accessing the server by the plurality of clients, submitting the resource requests thereto and verifying the connectivity thereto by the plurality of clients, the server providing a segregated system from the main server and configured to: receive the resource requests for the limited resource from the plurality of clients; wherein connectivity to the server by each of the plurality of clients is limited via maintained separate connectivity policies for the server and the main server; and a control module in communication with the server and the main server and configured to determine when the limited resource is listed for release from the main server, parse the server for corresponding said resource requests, process a resource request of said resource requests from a client of the plurality of clients and distribute the limited resource accordingly including informing the client that the resource request was successful; wherein the client subsequently confirms the resource request with the main server. a main server configured to provide standard application server functionality for maintaining the plurality of limited resources; a server that supports a limited number of commands for accessing the server by the plurality of clients, submitting the resource requests thereto and verifying the connectivity thereto by the plurality of clients, the server providing a segregated system from the main server and configured to: receive the resource requests for the limited resource from the plurality of clients; wherein connectivity to the server by each of the plurality of clients is limited via maintained separate connectivity policies for the server and the main server; and receive the resource requests for the limited resource from the plurality of clients; wherein connectivity to the server by each of the plurality of clients is limited via maintained separate connectivity policies for the server and the main server; and a control module in communication with the server and the main server and configured to determine when the limited resource is listed for release from the main server, parse the server for corresponding said resource requests, process a resource request of said resource requests from a client of the plurality of clients and distribute the limited resource accordingly including informing the client that the resource request was successful; wherein the client subsequently confirms the resource request with the main server.
An in vitro method for diagnosing whether a milk allergic subject is likely to outgrow a milk allergy by determining antibody binding affinity to an allergen in an antibody-containing sample obtained from a subject, wherein said allergen is selected from the group consisting of αS1-casein, αS2-casein, κ-casein, β-casein, and β-lactoglobulin, which comprises: (a) incubating said sample with a peptide library corresponding to said allergen immobilized on a solid support, wherein said peptide library comprises at least one allergen epitope to form an incubation mixture; (b) incubating a first portion of the incubation mixture with a competitor, wherein said competitor comprises at least one epitope of said allergen, and incubating a second portion of the incubation mixture under the same conditions but in the absence of said competitor; (c) detecting antibody binding to said peptide library in said first and second portions of the incubation mixture; and (d) comparing the number of subject antibodies that remain bound to said at least one epitope in said first and second portions of the incubation mixture to determine the affinity of antibody binding to said immobilized allergen epitopes; wherein the competitor provides a reduction of antibody binding to its peptide ligand of at least 10% at a concentration of the competitor ranging from 0.1 to 10 mg/ml, and wherein the epitope is a IgE epitope selected from the group consisting of FPEVFGKEKVNELSKDI (SEQ ID NO: 6); QKHIQKEDVPSERYLGYL (SEQ ID NO:7); LEIVPNSAEERLHS (SEQ ID NO:8); AWYYVPLGTQYTDAPSF (SEQ ID NO: 9); INPSKENLCSTFCKEVV (SEQ ID NO: 10); EVDDEALEKFDKAL (SEQ ID NO: 11); RFFSDKIAKYIPIQYVL (SEQ ID NO: 12); DSPEVIESPPEINTVQV (SEQ ID NO: 13); CKEWRNANEEEYS (SEQ ID NO: 14); and QTPVWPPFLQPEV (SEQ ID NO: 15). (a) incubating said sample with a peptide library corresponding to said allergen immobilized on a solid support, wherein said peptide library comprises at least one allergen epitope to form an incubation mixture; (b) incubating a first portion of the incubation mixture with a competitor, wherein said competitor comprises at least one epitope of said allergen, and incubating a second portion of the incubation mixture under the same conditions but in the absence of said competitor; (c) detecting antibody binding to said peptide library in said first and second portions of the incubation mixture; and (d) comparing the number of subject antibodies that remain bound to said at least one epitope in said first and second portions of the incubation mixture to determine the affinity of antibody binding to said immobilized allergen epitopes;
A composition comprising first and second chemically synthesized oligomeric compounds, wherein: the first oligomeric compound, the antisense strand, comprises a hybridizing region that is fully complementary to a nucleic acid target and has the formula: 5'-(N i -L) 2 -(N m -L) 3 -(N n -L) 2 -(N m -L) 2 -(N n -L) 2 -(N m -L) 5 -(N n -L) 3 -3' wherein each N i is a 4'-thio modified nucleoside or a 2'-F modified nucleoside; each N m is a 2'-F modified nucleoside; each N n is a 2'-OCH 3 modified nucleoside; each L is an internucleoside linkage; the second oligomeric compound, the sense strand, comprises a hybridizing region that is fully complementary to the hybridizing region of the first oligomeric compound and comprises a continuous sequence of nucleosides that define an alternating motif comprising 2'-O(CH 2) 2 OCH 3; each of the first and second oligomeric compounds can comprise one or more optional groups independently selected from a 3'-capping group, a 5'-capping group, a 5'-phosphate moiety, a 3'-linked conjugate group, a non hybridizing 3'-overhang region and a non hybridizing 3'-overhang region that is linked to a conjugate group; and the first and second oligomeric compounds form an siRNA. the first oligomeric compound, the antisense strand, comprises a hybridizing region that is fully complementary to a nucleic acid target and has the formula: 5'-(N i -L) 2 -(N m -L) 3 -(N n -L) 2 -(N m -L) 2 -(N n -L) 2 -(N m -L) 5 -(N n -L) 3 -3' wherein each N i is a 4'-thio modified nucleoside or a 2'-F modified nucleoside; each N m is a 2'-F modified nucleoside; each N n is a 2'-OCH 3 modified nucleoside; each L is an internucleoside linkage; the second oligomeric compound, the sense strand, comprises a hybridizing region that is fully complementary to the hybridizing region of the first oligomeric compound and comprises a continuous sequence of nucleosides that define an alternating motif comprising 2'-O(CH 2) 2 OCH 3; each of the first and second oligomeric compounds can comprise one or more optional groups independently selected from a 3'-capping group, a 5'-capping group, a 5'-phosphate moiety, a 3'-linked conjugate group, a non hybridizing 3'-overhang region and a non hybridizing 3'-overhang region that is linked to a conjugate group; and the first and second oligomeric compounds form an siRNA.
A method for cleaning a surface of a substrate (6,30), in particular a semiconductor substrate such as a silicon wafer, by the steps of: • Positioning the substrate (6,30) so that the surface is at a distance from a piezo-electric transducer (2,32), • Supplying a cleaning liquid between the substrate and the transducer, • Applying an oscillating acoustic force to the cleaning liquid by actuating the transducer (2,32), i.e. by applying an alternating current and voltage to said transducer, • Moving the transducer with respect to the substrate or vice versa, characterised in that at several points in time during said movement the following sequence of steps is performed: • Measuring the phase shift between the current and voltage applied to said transducer, • Comparing the measured phase shift to a desired value of the phase shift, • Adjusting the distance between the surface and the transducer so that said phase shift is maintained equal to said desired value of the phase shift. • Positioning the substrate (6,30) so that the surface is at a distance from a piezo-electric transducer (2,32), • Supplying a cleaning liquid between the substrate and the transducer, • Applying an oscillating acoustic force to the cleaning liquid by actuating the transducer (2,32), i.e. by applying an alternating current and voltage to said transducer, • Moving the transducer with respect to the substrate or vice versa, • Measuring the phase shift between the current and voltage applied to said transducer, • Comparing the measured phase shift to a desired value of the phase shift, • Adjusting the distance between the surface and the transducer so that said phase shift is maintained equal to said desired value of the phase shift.
A pressure adjustment/reduction device having an inlet connected to a channel for supplying servo oil for a braking system, and arranged to provide at its outlet an adjusted/reduced pressure to be supplied to servo chambers of master cylinders of servo controlled brakes, said device including, within a body: - a piston arranged to slide internally of a volume of which an inlet is said inlet channel arranged to supply pressurised fluid, and an outlet is at least one outlet pipe arranged to transfer said fluid to said servo chambers; wherein said volume comprises: - a first bore having a section with a first area where, in use, said piston is arranged to slide; - a second bore having a section with a second area where, in use, said piston is arranged to sealingly slide; the device being characterised in that said piston is arranged to slide, depending on the pressurised fluid supplied by the inlet channel, between a rest position, in which said inlet channel and said at least one outlet pipe are in hydraulic connection through said first bore, and a final position, in which said hydraulic connection between said inlet channel and said at least one outlet pipe is interrupted; and in that said first bore, said second bore and said inlet channel are hydraulically connected when said hydraulic connection between said inlet channel and said at least one outlet channel is interrupted, so that the pressurised fluid supplied by said inlet channel acts onto both said first area of said first bore and said second area of said second bore, said first area being greater than said second area according to a predetermined ratio that is arranged to define a predetermined pressure reduction ratio between the pressure of the fluid incoming through said inlet channel and the pressure of the fluid exiting through said at least one outlet pipe. - a piston arranged to slide internally of a volume of which an inlet is said inlet channel arranged to supply pressurised fluid, and an outlet is at least one outlet pipe arranged to transfer said fluid to said servo chambers; - a first bore having a section with a first area where, in use, said piston is arranged to slide; - a second bore having a section with a second area where, in use, said piston is arranged to sealingly slide;
A system comprising: an optical pulse-rate sensor (460; 560) comprising: an illumination source configured to emit light; a window (410; 510) through which the light passes en route to a target; and an illumination receiver configured to measure the light reflected back through the window from the target; and a frame (420; 520) surrounding the window and elevating away from the window; characterized by: a pillow surrounding the frame and recessing from the frame and the window, wherein the optical pulse-rate sensor is positioned on a mound of the pillow, and wherein the pillow is configured to be compressible by 2 mm or more, whereby the pillow is configured to urge the optical pulse-rate sensor towards the skin of the user when the wearable electronic device is worn by the user; and a spring (470; 570) positioned under the optical pulse-rate sensor (460; 560) to bias the optical pulse-rate sensor and frame (420; 520) towards the skin of the user. an optical pulse-rate sensor (460; 560) comprising: an illumination source configured to emit light; a window (410; 510) through which the light passes en route to a target; and an illumination receiver configured to measure the light reflected back through the window from the target; and an illumination source configured to emit light; a window (410; 510) through which the light passes en route to a target; and an illumination receiver configured to measure the light reflected back through the window from the target; and a frame (420; 520) surrounding the window and elevating away from the window; characterized by: a pillow surrounding the frame and recessing from the frame and the window, wherein the optical pulse-rate sensor is positioned on a mound of the pillow, and wherein the pillow is configured to be compressible by 2 mm or more, whereby the pillow is configured to urge the optical pulse-rate sensor towards the skin of the user when the wearable electronic device is worn by the user; and a spring (470; 570) positioned under the optical pulse-rate sensor (460; 560) to bias the optical pulse-rate sensor and frame (420; 520) towards the skin of the user. a pillow surrounding the frame and recessing from the frame and the window, wherein the optical pulse-rate sensor is positioned on a mound of the pillow, and wherein the pillow is configured to be compressible by 2 mm or more, whereby the pillow is configured to urge the optical pulse-rate sensor towards the skin of the user when the wearable electronic device is worn by the user; and a spring (470; 570) positioned under the optical pulse-rate sensor (460; 560) to bias the optical pulse-rate sensor and frame (420; 520) towards the skin of the user.
A beverage product comprising a solution of: (a) a first azo-component and a second azo-component; (b) an electrolyte comprising sodium chloride and/or potassium salt in an amount of about 2 wt% to about 9 wt% of the beverage product; and (c) a solvent; wherein the azo-components are present in a combined amount of about 0.01 wt% to about 6 wt% of the beverage product and are Red 40, Yellow 5 or Yellow 6; wherein the weight ratio of the first azo-component to the second azo-component is about 1:3 to about 3:1; and wherein the first azo-component and the second azo-component remain in solution for at least seven days. (a) a first azo-component and a second azo-component; (b) an electrolyte comprising sodium chloride and/or potassium salt in an amount of about 2 wt% to about 9 wt% of the beverage product; and (c) a solvent;