mhurhangee/ep-ind-claims huggingface dataset:
A vibration device, comprising: - a first machine frame; - a machine table coupled to the first machine frame in such a way that it is displaceable relative to the first machine frame at least in a main direction of movement; - a first eccentric mass which is rotatably mounted on the machine table, wherein the first eccentric mass is coupled to a first drive motor; - a second eccentric mass which is rotatably mounted on the machine table, wherein the second eccentric mass is coupled to a second drive motor, characterized in that the first eccentric mass and the second eccentric mass are arranged on the machine table such that they are displaceable relative to the machine table in the main direction of movement, wherein the first eccentric mass and the second eccentric mass are coupled to one another by means of a coupling device in such a way that a displacement of the first eccentric mass with respect to the main direction of movement leads to a displacement of the second eccentric mass in the opposite direction. - a first machine frame; - a machine table coupled to the first machine frame in such a way that it is displaceable relative to the first machine frame at least in a main direction of movement; - a first eccentric mass which is rotatably mounted on the machine table, wherein the first eccentric mass is coupled to a first drive motor; - a second eccentric mass which is rotatably mounted on the machine table, wherein the second eccentric mass is coupled to a second drive motor, characterized in that the first eccentric mass and the second eccentric mass are arranged on the machine table such that they are displaceable relative to the machine table in the main direction of movement, wherein the first eccentric mass and the second eccentric mass are coupled to one another by means of a coupling device in such a way that a displacement of the first eccentric mass with respect to the main direction of movement leads to a displacement of the second eccentric mass in the opposite direction.
A striker plate for a connecting rod fitting of a window, of a door or the like, wherein an elongate receiver is provided at the striker plate along a longitudinal axis to receive a latching element of the connecting rod fitting in different longitudinal positions, said latching element being displaceable in the direction of the longitudinal axis; wherein the elongate receiver is bounded transversely to the longitudinal axis by an abutment section which blocks a lateral movement of the latching element out of the elongate receiver; wherein the striker plate comprises a base part and an adjustment part movably supported thereat; wherein the elongate receiver is formed in the adjustment part; wherein the abutment section is formed at the adjustment part; wherein the adjustment part is displaceable relative to the base part transversely to the longitudinal axis between a base position and a displacement position to be able to laterally displace the latching element to a limited degree in a longitudinal position in which it is blocked by the abutment section; and wherein the adjustment part is displaceable obliquely to the longitudinal axis.
A method of dip-coating a lens (10; 20; 30) having a convex surface (11; 21) and a concave surface (12; 22) to be dip-coated, the method comprising the steps of: - immersing the lens (10; 20; 30) in a coating solution bath having a horizontal coating solution surface, and - withdrawing the lens (10; 20; 30) from said bath through said solution surface, characterized by, that the step of withdrawing is performed with a movement of the lens such that the orientation of the lens (10; 20; 30) varies continuously, from a position in which the optical axis of the lens (10; 20; 30) is inclined upwards and towards the concave surface (12; 22) of said lens (10; 20; 30) when said lens (10; 20; 30) starts emerging from said bath to a position in which the optical axis of the lens (10; 20; 30) is inclined upwards and towards the convex surface (11; 21) of said lens (10; 20; 30) when said lens (10; 20; 30) finishes emerging from said bath. - immersing the lens (10; 20; 30) in a coating solution bath having a horizontal coating solution surface, and - withdrawing the lens (10; 20; 30) from said bath through said solution surface,
Safety system for a separating protective device with first monitoring means for monitoring whether the separating protective device is locked in a closed position by means of a lock and with second monitoring means for detecting the setting of the separating protective device, characterised in that that second monitoring means comprises a sensor generating directionally dependent signals differing from the first monitoring means so that the movement sequence of the separating protective device can be precisely tracked by the directionally dependent signals and that the first and second monitoring means are diversely constructed.
A microfluidic device comprising: a plastic substrate having a first surface and a second surface, the first and second surfaces disposed on opposite sides of the plastic substrate; a sensor having a first surface and a second surface, the first surface comprising an electronic circuit layer; and a lamination film; wherein the first surface of the plastic substrate comprises an input recessed groove and an output recessed groove, wherein the second surface of the plastic substrate comprises a recessed cavity, wherein the lamination film is adhered to the first surface of the plastic substrate and covers the input recessed groove and the output recessed groove, such that an input closed channel (111, 221b) is formed by the lamination film and the input recessed groove and an output closed channel (113, 213b) is formed by the lamination film and the output recessed groove, wherein the sensor covers the recessed cavity, such that a flow cell (117, 217) is formed by the first surface of the sensor and the recessed cavity, wherein the input closed channel (111, 221b) is fluidly connected with the flow cell (117, 217), and wherein the output closed channel (113, 213b) is fluidly connected with the flow cell (117, 217). a plastic substrate having a first surface and a second surface, the first and second surfaces disposed on opposite sides of the plastic substrate; a sensor having a first surface and a second surface, the first surface comprising an electronic circuit layer; and a lamination film; wherein the first surface of the plastic substrate comprises an input recessed groove and an output recessed groove, wherein the second surface of the plastic substrate comprises a recessed cavity, wherein the lamination film is adhered to the first surface of the plastic substrate and covers the input recessed groove and the output recessed groove, such that an input closed channel (111, 221b) is formed by the lamination film and the input recessed groove and an output closed channel (113, 213b) is formed by the lamination film and the output recessed groove, wherein the sensor covers the recessed cavity, such that a flow cell (117, 217) is formed by the first surface of the sensor and the recessed cavity, wherein the input closed channel (111, 221b) is fluidly connected with the flow cell (117, 217), and wherein the output closed channel (113, 213b) is fluidly connected with the flow cell (117, 217).
An optical device comprising: a grating medium (310, 405,822, 1300); a first set of holograms in a first region of the grating medium, wherein each of the holograms in the first set at least partially overlaps each of the other holograms in the first set along a light propagation direction within the grating medium, and wherein each of the holograms in the first set has a different respective grating frequency of a first set of grating frequencies; and a second set of holograms in a second region of the grating medium, wherein each of the holograms in the second set at least partially overlaps each of the other holograms in the second set along the light propagation direction within the grating medium, and wherein each of the holograms in the second set has a different respective grating frequency of a second set of grating frequencies, the second set of grating frequencies being located within adjacent frequency gaps between the grating frequencies in the first set of grating frequencies. a grating medium (310, 405,822, 1300); a first set of holograms in a first region of the grating medium, wherein each of the holograms in the first set at least partially overlaps each of the other holograms in the first set along a light propagation direction within the grating medium, and wherein each of the holograms in the first set has a different respective grating frequency of a first set of grating frequencies; and a second set of holograms in a second region of the grating medium, wherein each of the holograms in the second set at least partially overlaps each of the other holograms in the second set along the light propagation direction within the grating medium, and wherein each of the holograms in the second set has a different respective grating frequency of a second set of grating frequencies, the second set of grating frequencies being located within adjacent frequency gaps between the grating frequencies in the first set of grating frequencies.
A self-propelled device for locomotion through a lumen, comprising: a set of serially arranged inflatable chambers (4A, 4B, 4C, 78A, 78B, 78C), with a distal chamber (4C, 78C) at one end of said device, and a proximal chamber (4A, 78A) at the opposite end of said device, said inflatable chambers (4A, 4B, 4C, 78A, 78B, 78C) expanding when inflated in axial and radial directions; a fluid supply system (86, 76) for inflating said chambers; and separators (80A, 80B, 80C, 70A, 70B, 70C) with one or more openings for providing fluid communication between pairs of adjacent chambers (4A, 4B, 4C, 78A, 78B, 78C), said one or more openings being such that fluid from said supply system (86, 76) inflates said set of serially arranged inflatable chambers (4A, 4B, 4C, 78A, 78B, 78C) sequentially from said proximal inflatable chamber (4A, 78A) to said distal inflatable chamber (4C, 78C), such that said device moves with the distal chamber (4C, 78C) leading, and deflation of said set of serially arranged inflatable chambers (4A, 4B, 4C, 78A, 78B, 78C) is sequential from said proximal chamber (4A, 78A) to said distal chamber (4C, 78C); wherein an axial channel (81, 71) running through said device is attached to a distal part (83, 73) of said device. a set of serially arranged inflatable chambers (4A, 4B, 4C, 78A, 78B, 78C), with a distal chamber (4C, 78C) at one end of said device, and a proximal chamber (4A, 78A) at the opposite end of said device, said inflatable chambers (4A, 4B, 4C, 78A, 78B, 78C) expanding when inflated in axial and radial directions; a fluid supply system (86, 76) for inflating said chambers; and separators (80A, 80B, 80C, 70A, 70B, 70C) with one or more openings for providing fluid communication between pairs of adjacent chambers (4A, 4B, 4C, 78A, 78B, 78C), said one or more openings being such that fluid from said supply system (86, 76) inflates said set of serially arranged inflatable chambers (4A, 4B, 4C, 78A, 78B, 78C) sequentially from said proximal inflatable chamber (4A, 78A) to said distal inflatable chamber (4C, 78C), such that said device moves with the distal chamber (4C, 78C) leading, and deflation of said set of serially arranged inflatable chambers (4A, 4B, 4C, 78A, 78B, 78C) is sequential from said proximal chamber (4A, 78A) to said distal chamber (4C, 78C);
A peptide comprising a sequence of amino acid motifs wherein said peptide comprises at least four amino acid motifs represented in the following formula: (Xaa 1 Xaa 2) w (Xaa 3 - Xaa 4 -Xaa 5) x (Xaa 6 -Xaa 7 -Xaa 8) y (Xaa 9 -Xaa 10 -Xaa 11) z wherein (Xaa 1 Xaa 2) w is a first amino acid motif for chemical conjugation to a molecular template wherein Xaa 1 is a thiol-containing amino acid and Xaa 2 is a glycine amino acid wherein w equals 1 or more, (Xaa 3 - Xaa 4 -Xaa 5) x is a second amino acid motif wherein Xaa 3 is proline, Xaa 4 is lysine, Xaa 5 is glycine wherein x equals 1 to 4, (Xaa 6 -Xaa 7 -Xaas) y is a third amino acid motif wherein Xaa 6 is proline, Xaa 7 is hydroxyproline, Xaa 8 is glycine wherein y - equals 1 to 4; and (Xaa 9 -Xaa 10 -Xaa 11) z is a fourth amino acid motif wherein Xaa 9 is aspartic acid or glutamic acid, Xaa 10 is hydroxyproline, Xaa 11 is glycine wherein z equals 1 to 4. wherein (Xaa 1 Xaa 2) w is a first amino acid motif for chemical conjugation to a molecular template wherein Xaa 1 is a thiol-containing amino acid and Xaa 2 is a glycine amino acid wherein w equals 1 or more, (Xaa 3 - Xaa 4 -Xaa 5) x is a second amino acid motif wherein Xaa 3 is proline, Xaa 4 is lysine, Xaa 5 is glycine wherein x equals 1 to 4, (Xaa 6 -Xaa 7 -Xaas) y is a third amino acid motif wherein Xaa 6 is proline, Xaa 7 is hydroxyproline, Xaa 8 is glycine wherein y - equals 1 to 4; and (Xaa 9 -Xaa 10 -Xaa 11) z is a fourth amino acid motif wherein Xaa 9 is aspartic acid or glutamic acid, Xaa 10 is hydroxyproline, Xaa 11 is glycine wherein z equals 1 to 4.
A method for providing a security feature for a browser window, comprising: receiving a call to open the window; determining a security level associated with the window; and when the security level indicates that content within the window comes from a non-trusted source displaying the window with a security element that a user may view to determine that the content within the window comes from the non-trusted source, wherein the security element is a status bar and further comprises a title bar, wherein the security element is turned off when the zone being navigated is the trusted sites zone. receiving a call to open the window; determining a security level associated with the window; and when the security level indicates that content within the window comes from a non-trusted source displaying the window with a security element that a user may view to determine that the content within the window comes from the non-trusted source,
A compound having Formula la: or a pharmaceutically acceptable salt thereof, wherein: R1 is chlorine; n is 3 or 4; and R4 is a straight or branched C3-C6 alkyl. R1 is chlorine; n is 3 or 4; and R4 is a straight or branched C3-C6 alkyl.
Block for CAD/CAM machining of a dental prosthetic component comprising: - an insert in which said prosthetic component is machined, - a polymer layer covering at least one surface of said insert, - a mandrel integral with the polymer layer, characterized in that the mandrel is made of an identical material to that of the polymer layer and that the mandrel and the polymer layer are crosslinked. - an insert in which said prosthetic component is machined, - a polymer layer covering at least one surface of said insert, - a mandrel integral with the polymer layer,
A hydraulic circuit, comprising: first to fourth hydraulic actuators; a first pump that supplies a working fluid to each of the first and second hydraulic actuators (21c, 23c); a second pump that supplies a working fluid to the third hydraulic actuator a third pump that supplies a working fluid to the fourth hydraulic actuator; first to fourth control (CV1, CV2, CV3, CV4) that control at least directions of the working fluids supplied to the first to fourth hydraulic actuators (16m, 21,c, 22,c 23c) characterized in that a pressure compensating valve that is provided on an upstream side of the second control valve and keeps constant a pressure difference between before and after an orifice of the second control valve that is opened between the first to third pumps and the second hydraulic actuator; and a switching valve that is switched in accordance with an operation amount of at least one of the first to fourth control valves (CV1, CV2, CV3, CV4) and controls the direction of the working fluid discharged from the third pump, in such a manner that the working fluid is selectively supplied to any of the second to fourth hydraulic actuators, wherein the switching valve converges the working fluid, which is supplied to the second hydraulic actuator, between the second control and the pressure compensating valve. first to fourth hydraulic actuators; a first pump that supplies a working fluid to each of the first and second hydraulic actuators (21c, 23c); a second pump that supplies a working fluid to the third hydraulic actuator a third pump that supplies a working fluid to the fourth hydraulic actuator; first to fourth control (CV1, CV2, CV3, CV4) that control at least directions of the working fluids supplied to the first to fourth hydraulic actuators (16m, 21,c, 22,c 23c) characterized in that a pressure compensating valve that is provided on an upstream side of the second control valve and keeps constant a pressure difference between before and after an orifice of the second control valve that is opened between the first to third pumps and the second hydraulic actuator; and a switching valve that is switched in accordance with an operation amount of at least one of the first to fourth control valves (CV1, CV2, CV3, CV4) and controls the direction of the working fluid discharged from the third pump, in such a manner that the working fluid is selectively supplied to any of the second to fourth hydraulic actuators, wherein the switching valve converges the working fluid, which is supplied to the second hydraulic actuator, between the second control and the pressure compensating valve.
A method of forming a multilayer shaft, comprising: a first stretching step wherein a portion of a distal end region of a multilayer polymeric tube is stretched at a first pressure and a first temperature, and the first pressure is equal to ambient pressure; a second stretching step wherein the multilayer polymeric tube is stretched at a second pressure and the first temperature until the extruded tube is stretched to 25 to 75%, preferably, 35-65%, more preferably 45-55%, and most preferably 50% of a desired final length, and the second pressure is greater than the first pressure; a third stretching step wherein the multilayer polymeric tube is stretched at a third pressure and the first temperature to form a stretched multilayer polymeric tube having the final stretched length, and the third pressure is less than the second pressure and greater than the first pressure; and a balloon forming step wherein a section of the stretched multilayer polymeric tube is formed into an integral balloon, wherein a total shaft length of the multilayer shaft with the integral balloon is at least 70 cm. a first stretching step wherein a portion of a distal end region of a multilayer polymeric tube is stretched at a first pressure and a first temperature, and the first pressure is equal to ambient pressure; a second stretching step wherein the multilayer polymeric tube is stretched at a second pressure and the first temperature until the extruded tube is stretched to 25 to 75%, preferably, 35-65%, more preferably 45-55%, and most preferably 50% of a desired final length, and the second pressure is greater than the first pressure; a third stretching step wherein the multilayer polymeric tube is stretched at a third pressure and the first temperature to form a stretched multilayer polymeric tube having the final stretched length, and the third pressure is less than the second pressure and greater than the first pressure; and a balloon forming step wherein a section of the stretched multilayer polymeric tube is formed into an integral balloon, wherein a total shaft length of the multilayer shaft with the integral balloon is at least 70 cm.
An alignment positioning cylinder for a sensor target assembly for a body with an axial bore, said alignment positioning cylinder comprising a polymeric cylindrical body having a central bore, characterized in that the polymeric cylindrical body further comprises multiple radial transverse bores adjacent its lateral ends (518, 520) for holding spaced apart target material (528, 529), said target material taken from a group consisting of magnetic and ferritic materials, and a plurality of annular exterior retaining barbs.
A jointed arm, comprising two rods connected by way of an elbow in a joint, wherein the elbow is provided with a winding drum, one of the rods comprises a tension element that is concealed, the tension element is composed essentially of a chain, and the jointed arm incorporates a main tension spring for the return of the arm extension, concealed in one of the rods, said spring being connected to one end of the chain while the other end of the chain is connected to the other arm rod passing by and resting on the winding drum disposed at the joint, whereby the chain has an anchoring link (3.1), and characterized in that the jointed arm comprises an outer strip (6.2) and an inner strip (6.1), both semi-rigid and attached to the chain by a central window (6.3) provided in a single strip bent in "U" form, which gives rise to one section of the single strip being the outer strip (6.2) and another section of the single strip being the inner strip (6.1), assuring that the said strips (6.1, 6.2) move with the chain, thereby accompanying the configuration of the chain in any of its positions as it turns around the winding drum.
A wireless communication device, comprising: a wireless communication interface; and a processing unit configured to access pairing information, encrypt the pairing information, transmit a first message comprising the encrypted pairing information to an interactive electronic device via the wireless communication interface, and establish wireless pairing with the interactive electronic device based on the pairing information, wherein the interactive electronic device is configured to provide the encrypted pairing information to a pairing server, receive decrypted pairing information from the pairing server, and establish the wireless pairing with the wireless communication device based on the decrypted pairing information; wherein the first message comprises an advertising message for a wireless communication protocol and the payload of the advertising message comprises the encrypted pairing information. a wireless communication interface; and a processing unit configured to access pairing information, encrypt the pairing information, transmit a first message comprising the encrypted pairing information to an interactive electronic device via the wireless communication interface, and establish wireless pairing with the interactive electronic device based on the pairing information, wherein the interactive electronic device is configured to provide the encrypted pairing information to a pairing server, receive decrypted pairing information from the pairing server, and establish the wireless pairing with the wireless communication device based on the decrypted pairing information; wherein the first message comprises an advertising message for a wireless communication protocol and the payload of the advertising message comprises the encrypted pairing information.