mhurhangee/patent-ind-claim-en huggingface dataset:
Positioning device (10, 20, 30 40, 50, 60) comprising: - a chassis , - a plate to be positioned, characterized in that it further comprises: - a motor comprising a stator which is connected to the chassis and a rotor, - a shaft , which is connected to the rotor driven by the motor and which is mobile in rotation relative to the chassis in a first direction and in a second direction opposing the first direction , - a first element for the transmission of rotational movement which is configured to be driven in rotation by the shaft in the first direction and to be free in the second direction , - a second element for the transmission of rotational movement which is configured to be driven in rotation by the shaft in the second direction and to be free in the first direction , - a first connecting rod which is connected to the plate by a first pivot connection and which is connected to the first element for the transmission of rotational movement by a second pivot connection which is offset from the axis of rotation of the first element for the transmission of rotational movement , - a second connecting rod which is connected to the plate by a third pivot connection and which is connected to the second element for the transmission of rotational movement by a fourth pivot connection which is offset from the axis of rotation of the second element for the transmission of rotational movement , - a connecting element having at least two degrees of rotational freedom between the plate and the chassis . - a chassis , - a plate to be positioned, - a motor comprising a stator which is connected to the chassis and a rotor, - a shaft , which is connected to the rotor driven by the motor and which is mobile in rotation relative to the chassis in a first direction and in a second direction opposing the first direction , - a first element for the transmission of rotational movement which is configured to be driven in rotation by the shaft in the first direction and to be free in the second direction , - a second element for the transmission of rotational movement which is configured to be driven in rotation by the shaft in the second direction and to be free in the first direction , - a first connecting rod which is connected to the plate by a first pivot connection and which is connected to the first element for the transmission of rotational movement by a second pivot connection which is offset from the axis of rotation of the first element for the transmission of rotational movement , - a second connecting rod which is connected to the plate by a third pivot connection and which is connected to the second element for the transmission of rotational movement by a fourth pivot connection which is offset from the axis of rotation of the second element for the transmission of rotational movement , - a connecting element having at least two degrees of rotational freedom between the plate and the chassis .
A use of a phosphor in converting VUV to UV-C radiation for a UV emitting device, the phosphor having the formula Na 1+x Ca 1-2x PO 4 :Pr 3+ x wherein 0 < x < 0.5.
An anti-cancer drug for use in a method for killing or inhibiting the growth of cancer cells in a target region, the method comprising the simultaneous steps of treating the cancer cells with the anti-cancer drug and applying an electric field to the target region for a period of time while the cancer cells are being treated with the anti-cancer drug, wherein the electric field is configured to damage the cancer cells or inhibit growth of the cancer cells but leaving normal cells in the target region substantially unharmed, wherein the electric field is an AC electric field having a field strength in the target region of at least 1 V/cm and a frequency between 100 kHz and 300 kHz.
Method of controlling an AC power supply system (PS) supplying an AC output voltage (Uec) to electrodes of an electrostatic coalescer (EC), the method comprising the steps of: - measuring a parameter representative of an output current (Iec) of the power supply system (PS); and - measuring a parameter representative of the output voltage (Uec) of the power supply system (PS); characterised in that the method further comprises the steps of: - identifying a phase difference (φ) between the output current (Iec) and the output voltage (Uec); - controlling the AC power supply system (PS) to keep the phase difference (φ) in a predetermined range (R) from a minimum phase difference (φmin) equal to π/6 radians to a maximum phase difference (φmax) equal to π/2 radians. - measuring a parameter representative of an output current (Iec) of the power supply system (PS); and - measuring a parameter representative of the output voltage (Uec) of the power supply system (PS); - identifying a phase difference (φ) between the output current (Iec) and the output voltage (Uec); - controlling the AC power supply system (PS) to keep the phase difference (φ) in a predetermined range (R) from a minimum phase difference (φmin) equal to π/6 radians to a maximum phase difference (φmax) equal to π/2 radians.
A method in a portable device for providing navigation instructions in an automotive environment, the method comprising: generating, at the portable device, a test audio signal; providing the test audio signal to a head unit of the vehicle via a short-range communication link ; detecting, at the portable device, whether the test audio signal has been converted to sound by one or more speakers in the head unit of the vehicle; in response to detecting the audio signal at the portable device, directing a vocalized navigation instruction to the head unit for announcement via the one or more speakers of the head unit; otherwise, in response to not detecting the test audio signal at the portable device, providing the vocalized navigation instruction via a speaker of the portable device. generating, at the portable device, a test audio signal; providing the test audio signal to a head unit of the vehicle via a short-range communication link ; detecting, at the portable device, whether the test audio signal has been converted to sound by one or more speakers in the head unit of the vehicle; in response to detecting the audio signal at the portable device, directing a vocalized navigation instruction to the head unit for announcement via the one or more speakers of the head unit; otherwise, in response to not detecting the test audio signal at the portable device, providing the vocalized navigation instruction via a speaker of the portable device.
A method of producing a balance shaft from a non-magnetic alloy by means of a machine comprising a rotary gripper and a machining laser mounted on a numerically controlled actuator, said method comprising the following steps: - providing a bar of said alloy, - rotating the bar along its longitudinal axis, - shaping the bar by laser machining to obtain a balance shaft comprising a pivot at each end, - carrying out a tribological finishing treatment, without performing a rolling operation after shaping. - providing a bar of said alloy, - rotating the bar along its longitudinal axis, - shaping the bar by laser machining to obtain a balance shaft comprising a pivot at each end, - carrying out a tribological finishing treatment, without performing a rolling operation after shaping.
An outsole for an article of footwear , the outsole comprising: a first portion having a first traction surface configured for engaging the ground surface, wherein the first traction surface is configured to be disposed on a medial side portion of the article of footwear and comprises one or more first traction elements ; and a second portion having a second traction surface configured for engaging the ground surface, wherein the second portion is configured to be disposed on the medial side portion of the article of footwear and extends in a superior direction from the first portion , and wherein the second traction surface comprises one or more second traction elements , wherein the first portion includes a curved rim , wherein the second portion includes a complementary, curved, recessed lip , and wherein the curved rim and the recessed lip are adapted to have face-sharing contact with one another and form an overlapping interface between the first portion and the second portion , the overlapping interface separating the first traction surface and second traction surface from one another, wherein the overlapping interface extends along an entire length of an anterior portion of a medial side portion of the outsole , and wherein the curved rim and the recessed lip undulate in a substantially anterior-to-posterior direction from an anterior end of the outsole to a location on the medial side portion that is between the anterior end and a posterior end , where the first traction surface and second traction surface terminate. a first portion having a first traction surface configured for engaging the ground surface, wherein the first traction surface is configured to be disposed on a medial side portion of the article of footwear and comprises one or more first traction elements ; and a second portion having a second traction surface configured for engaging the ground surface, wherein the second portion is configured to be disposed on the medial side portion of the article of footwear and extends in a superior direction from the first portion , and wherein the second traction surface comprises one or more second traction elements , wherein the first portion includes a curved rim , wherein the second portion includes a complementary, curved, recessed lip , and wherein the curved rim and the recessed lip are adapted to have face-sharing contact with one another and form an overlapping interface between the first portion and the second portion , the overlapping interface separating the first traction surface and second traction surface from one another, wherein the overlapping interface extends along an entire length of an anterior portion of a medial side portion of the outsole , and wherein the curved rim and the recessed lip undulate in a substantially anterior-to-posterior direction from an anterior end of the outsole to a location on the medial side portion that is between the anterior end and a posterior end , where the first traction surface and second traction surface terminate.
An energy accumulator for an on-load tap changer that comprises a motor with an output shaft and a load diverter switch with an input shaft , the energy accumulator comprising - an elastic storage element ; - a gear that is coupled to the storage element and comprises • an input hub that can be non-rotatably connected to the output shaft ; • an output hub that can be non-rotatably connected to the input shaft ; and • a variable transmission means that is interposed between the input hub and the storage element ; characterised by • a first coupling with a specified first angular backlash, which first coupling is interposed between the input hub and the storage element ; • a second coupling with a specified second angular backlash, which second coupling is interposed between the storage element and the output hub . - an elastic storage element ; - a gear that is coupled to the storage element and comprises • an input hub that can be non-rotatably connected to the output shaft ; • an output hub that can be non-rotatably connected to the input shaft ; and • a variable transmission means that is interposed between the input hub and the storage element ; characterised by • a first coupling with a specified first angular backlash, which first coupling is interposed between the input hub and the storage element ; • a second coupling with a specified second angular backlash, which second coupling is interposed between the storage element and the output hub . • an input hub that can be non-rotatably connected to the output shaft ; • an output hub that can be non-rotatably connected to the input shaft ; and • a variable transmission means that is interposed between the input hub and the storage element ; characterised by • a first coupling with a specified first angular backlash, which first coupling is interposed between the input hub and the storage element ; • a second coupling with a specified second angular backlash, which second coupling is interposed between the storage element and the output hub .
A biogas reactor, which has a floor and a wall , which floor and wall form a substantially liquid-proof basin, a gas-permeable intermediate floor substantially completely covering the basin and a roof structure above the intermediate floor , characterized in that said intermediate floor comprises a porous thermal insulation layer and support wooden beams , and in the basin there is a support pillar , which has a first end, which is supported on the floor , and said support beams have a first end, by which the support beam is supported on the wall , and a second end, by which the support beam is supported on the support pillar .
A projectile system comprising a reusable projectile mount and a projectile the projectile mount having a propulsion chamber and a central helical bore with a bore diameter, the central helical core extending from the propulsion chamber , the projectile including: an elongate body having a maximum diameter which corresponds substantially to the bore diameter of the projectile mount , the projectile mount and the projectile having loose complementary interfitting thread bearing areas forming rotational formations , the projectile having an aerodynamic front portion , and the projectile having a substantially cylindrical rear portion including at least a first part of a rotational formation having part of the loose complementary interfitting thread bearing areas that functionally engages with a second part of the rotational formation having another part of the loose complementary interfitting thread bearing areas; wherein the loose fit arrangement between the rotational formations (19/29) allows propulsion gas to leave the propulsion chamber via a gap between the rotational formations (19/29) to provide a gaseous bearing and to allow a build-up of pressure behind the projectile , while allowing functional engagement of the rotational formations (19/29) to provide rotational motion around an axis of rotation to the projectile by the propulsion of the projectile along the axis of rotation; and wherein minimal spacing provides functional engaging of the projectile and projectile mount portions which are relatively sized to allow a build-up of pressure behind the projectile and gaseous leakage flow between the projectile and projectile mount portions to form a gaseous bearing.
A method for oligomerizing olefins, the method comprising the steps of: introducing an oligomerization transition metal catalyst, a cocatalyst, an olefin monomer, and a solvent into a reactor to perform an olefin oligomerization reaction; and introducing a catalyst inactivator, which includes an oxygen-containing inorganic material in a gas phase, to a reaction product of the oligomerization reaction, wherein the transition metal catalyst is represented by ML 1 (L 2 ) p (X) q or M 2 X 1 2 L 1 2 (L 2 ) y (X) z , wherein M is a transition metal, L 1 is a heteroligand, L 2 is an organic ligand, X and X 1 are each independently a halogen, p is an integer of 0 or 1 or more, q is an integer of (oxidation number of M - p), y is an integer of 2 or more, and z is an integer of (2 x oxidation number of M) - y, and wherein the heteroligand L 1 has a P-C-C-P backbone structure represented by the following Formula 3: wherein R 51 to R 54 are each independently a hydrocarbyl, a substituted hydrocarbyl, a heterohydrocarbyl, or a subst ituted heterohydrocarbyl; R 55 and R 56 are each independently a hydrocarbyl or a substituted hydrocarbyl, or R 55 and R 56 may be taken together via hydrocarbylene, substituted hydrocarbylene, heterohydrocarbylene, or substituted heterohydrocarbylene to form a ring. introducing an oligomerization transition metal catalyst, a cocatalyst, an olefin monomer, and a solvent into a reactor to perform an olefin oligomerization reaction; and introducing a catalyst inactivator, which includes an oxygen-containing inorganic material in a gas phase, to a reaction product of the oligomerization reaction, wherein the transition metal catalyst is represented by ML 1 (L 2 ) p (X) q or M 2 X 1 2 L 1 2 (L 2 ) y (X) z , wherein M is a transition metal, L 1 is a heteroligand, L 2 is an organic ligand, X and X 1 are each independently a halogen, p is an integer of 0 or 1 or more, q is an integer of (oxidation number of M - p), y is an integer of 2 or more, and z is an integer of (2 x oxidation number of M) - y, and wherein the heteroligand L 1 has a P-C-C-P backbone structure represented by the following Formula 3: wherein R 51 to R 54 are each independently a hydrocarbyl, a substituted hydrocarbyl, a heterohydrocarbyl, or a subst ituted heterohydrocarbyl; R 55 and R 56 are each independently a hydrocarbyl or a substituted hydrocarbyl, or R 55 and R 56 may be taken together via hydrocarbylene, substituted hydrocarbylene, heterohydrocarbylene, or substituted heterohydrocarbylene to form a ring.
In-line drying apparatus for ceramic products comprising at least one first drying unit , at least one second drying unit aligned in mutual succession, at least one channel that develops along said drying apparatus through said at least one first drying unit and said at least one second drying unit , for the transit of ceramic products to be dried, means for supporting and conveying the ceramic products along a direction of advance (A), wherein said supporting and conveying means are provided along said at least one channel , said drying apparatus further comprising at least one box junction element between said at least one first drying unit and said at least one second drying unit , said at least one box junction element being able to assume a first operative configuration and a second operative configuration, in which in said first operative configuration said at least one box junction element delimits at least one section (110") for the passage of said ceramic products along said at least one channel and in said second operative configuration it provides an access passage into said at least one channel , wherein said at least one channel comprises at least one first segment which develops inside said one drying unit , and at least one second segment (110") which develops along said at least one box junction element , characterised in that said at least one box junction element has a first open section and a second open section , opposite each other along said direction of advance (A) and aligned substantially orthogonal to said direction of advance (A), and in that the entire box junction element can be extracted/inserted from/into the drying apparatus between a first operative position, in which the at least one box junction element connects in an airtight manner said first drying unit to said second drying unit , and a second operative position, in which said at least one box junction element provides an access passage into the drying apparatus , and wherein when said at least one box junction element is inserted into the drying apparatus , said at least one second segment (110") and said at least one first segment are mutually aligned to constitute at least one continuous tunnel, free of discontinuities, for the transit of the ceramic products to be dried, and wherein with said at least one box junction element placed in the second operative position, said at least one box junction element is extracted from the in-line structure of the drying apparatus .
A method of creating a hinge in a body of expandable material, said body being substantially flat and having at least two planar regions connected by said hinge to facilitate folding of the planar regions about said hinge, comprising: expanding said expandable material to form said body; creating a region of excess expandable material in said body adjacent said hinge; and compressing said region of excess expandable material into the hinge of said body by moving a moveable anvil to push the excess expandable material after the expandable material has fused against a projection to create the hinge having a concentrated volume of expanded material when compared to said at least two planar regions of said body. expanding said expandable material to form said body; creating a region of excess expandable material in said body adjacent said hinge; and compressing said region of excess expandable material into the hinge of said body by moving a moveable anvil to push the excess expandable material after the expandable material has fused against a projection to create the hinge having a concentrated volume of expanded material when compared to said at least two planar regions of said body.
A wound healing scaffold comprised of a collagen glycosaminoglycan scaffold cografted with a population of stem cells, wherein the population of stem cells is characterized by : a) at least 80% of the population of stem cells are ABCB5+ stem cells; b) the population of stem cells are ABCB5+ ocular stem cells, wherein the cell population is free of non-ocular cells, or (c) being a population of ABCB5+ stem cells isolated from a tissue of a subject, wherein the ABCB5+ stem cells have been separated from other cells in the subject using an antibody specific for ABCB5. a) at least 80% of the population of stem cells are ABCB5+ stem cells; b) the population of stem cells are ABCB5+ ocular stem cells, wherein the cell population is free of non-ocular cells, or (c) being a population of ABCB5+ stem cells isolated from a tissue of a subject, wherein the ABCB5+ stem cells have been separated from other cells in the subject using an antibody specific for ABCB5.
A vacuum exhaust method of exhausting a vacuum chamber (CH) by a vacuum pump apparatus (DP), comprising: an increasing step (S102) of increasing a rotational speed of the vacuum pump apparatus (DP) to a predetermined stable speed after starting the vacuum pump apparatus (DP); a gas introduction step (S104) of introducing an inert gas into the vacuum pump apparatus (DP) after the rotational speed of the vacuum pump apparatus (DP) reaches the stable speed; and wherein the vacuum exhaust method comprises: a first introduction step of introducing inert gas of a first flow rate into the vacuum pump apparatus (DP) through a bypass line (BL) branched from an inert gas supply line (SL) connected to the vacuum pump apparatus (DP); and a second introduction step of introducing inert gas of a second flow rate larger than the first flow rate into the vacuum pump apparatus (DP). an increasing step (S102) of increasing a rotational speed of the vacuum pump apparatus (DP) to a predetermined stable speed after starting the vacuum pump apparatus (DP); a gas introduction step (S104) of introducing an inert gas into the vacuum pump apparatus (DP) after the rotational speed of the vacuum pump apparatus (DP) reaches the stable speed; and wherein the vacuum exhaust method comprises: a first introduction step of introducing inert gas of a first flow rate into the vacuum pump apparatus (DP) through a bypass line (BL) branched from an inert gas supply line (SL) connected to the vacuum pump apparatus (DP); and a second introduction step of introducing inert gas of a second flow rate larger than the first flow rate into the vacuum pump apparatus (DP). a first introduction step of introducing inert gas of a first flow rate into the vacuum pump apparatus (DP) through a bypass line (BL) branched from an inert gas supply line (SL) connected to the vacuum pump apparatus (DP); and a second introduction step of introducing inert gas of a second flow rate larger than the first flow rate into the vacuum pump apparatus (DP).